mhurhangee/ep-ind-claims huggingface dataset:
A vehicle control device which includes a plurality of module groups wherein a module group comprises at least a basic function module and an additional function module, and a data management part which manages data of the module groups, the vehicle control device comprising: a module management part which includes a base part which outputs a state transition command for operating a predetermined basic function on a basis of data from the data management part and a customization part which outputs a state transition command for operating an additional function; a state determination part which determines a current state of a function module of the module groups by selecting or not selecting the state transition command from the base part and the state transition command from the customization part based on a definition file, determines a start command or a stop command of the module group on a basis of the determined state, and outputs the command to the data management part; and a module execution part which calls all module groups, wherein the called module group reads the start command and the stop command determined by the state determination part from the data management part and executes starting and stopping with reference to the start command or the stop command. a module management part which includes a base part which outputs a state transition command for operating a predetermined basic function on a basis of data from the data management part and a customization part which outputs a state transition command for operating an additional function; a state determination part which determines a current state of a function module of the module groups by selecting or not selecting the state transition command from the base part and the state transition command from the customization part based on a definition file, determines a start command or a stop command of the module group on a basis of the determined state, and outputs the command to the data management part; and a module execution part which calls all module groups, wherein the called module group reads the start command and the stop command determined by the state determination part from the data management part and executes starting and stopping with reference to the start command or the stop command.
A biopsy specimen carrier adapted for tissue biopsy samples where the specimen need not be removed or handled once housed within, which comprises: (a) a backer board which contains a needle guide; (b) a media carrier removably secured to the backer board; (c) a media removably secured to the media carrier and receptive to hold a tissue biopsy sample; (d) a first strip of adhesive material on the media carrier adjacent to the media; (e) a release strip covering the first strip of adhesive material, the media carrier being foldable to cover the media carrying a tissue biopsy sample and be secured to the first strip of adhesive material with the release strip removed. (a) a backer board which contains a needle guide; (b) a media carrier removably secured to the backer board; (c) a media removably secured to the media carrier and receptive to hold a tissue biopsy sample; (d) a first strip of adhesive material on the media carrier adjacent to the media; (e) a release strip covering the first strip of adhesive material,
A process for producing a hydrocarbon product from a lignin oil, said lignin oil having an oxygen content of 10-30 wt-%, an average weight molecular weight of 500-800 g/mol with a polydispersity of 2, a heating value of 25-35 MJ/kg, a water content of 0-1.5 wt-%, a sodium content of 400-500 ppm, a potassium content of 50-100 ppm, a sulfur content of 1-2.5 wt-% and a total acid number of 110-125 mg KOH/g oil, wherein the process for producing the hydrocarbon product comprises the steps of treating the lignin oil in a reactor in the presence of one or more of a hydrodesulfurization catalyst selected from NiMo on alumina or CoMo on alumina; or a hydrodesulfurization and cracking catalyst selected from NiMo on zeolite or CoMo on zeolite, or a hydrodeoxygenation and cracking catalyst selected from NiO on zeolite, zeolite alone or combinations thereof, or a hydrodeoxygenation catalyst selected from Ni/NiO, Cu/Cr, Pd/Cu, or Pt on a support material, such as chromite and/or alumina and/or zirconia and/or graphite and/or carbon and/or silica; or combinations thereof, and applying a H 2 pressure of 30-160 bar, preferably 50-150 bar, a gas to oil ratio of 200-2000 l/l (STP conditions), preferably 500-1500 l/l, at a temperature of 290-400 °C, preferably 300-360 °C, and with a liquid hourly space velocity (LHSV) of 0.25-2 h -1 and preferably 0.5-1 h -1 followed by cooling the reaction product from the reactor to 20-30 °C, and separating the reaction product by phase separation, into a gaseous phase, a liquid hydrocarbon product phase, and a water phase, thereby obtaining the hydrocarbon product. a hydrodesulfurization catalyst selected from NiMo on alumina or CoMo on alumina; or a hydrodesulfurization and cracking catalyst selected from NiMo on zeolite or CoMo on zeolite, or a hydrodeoxygenation and cracking catalyst selected from NiO on zeolite, zeolite alone or combinations thereof, or a hydrodeoxygenation catalyst selected from Ni/NiO, Cu/Cr, Pd/Cu, or Pt on a support material, such as chromite and/or alumina and/or zirconia and/or graphite and/or carbon and/or silica; or combinations thereof, and
A disposable set of components for an organ perfusion system, the set comprising a fluid supply duct for supplying fluid to the organ, a fluid removal duct for removing fluid from the organ, a surrogate organ removably connected between the fluid supply duct and the fluid removal duct so as to form a fluid circuit, so that fluid can be circulated in the circuit in preparation for connection of the organ, a connector arranged to be at the lowest point of the circuit when in use, a priming reservoir, and a priming duct arranged to connect the priming reservoir to the connector.
A method performed by data processing apparatus, the method comprising: launching a root enclave; accessing an enclave manifest by the root enclave, wherein the enclave manifest specifies, for each of a plurality of component enclaves, a particular role for the respective component enclave; and instantiating each of the component enclaves, each component enclave configured to perform its respective role; wherein the root enclave and the plurality of component enclaves form an enclave pod; wherein each component enclave of the enclave pod has a respective first key to securely communicate with other component enclaves of the enclave pod through a voting process, wherein each respective first key is certified by the root enclave by use of a second key, wherein the respective first keys are respective fragments of an entire first key that has been split into the respective fragments, and wherein the entire first key is an entire enclave pod signing key, and wherein each component enclave of the enclave pod ensures that the first key of another component enclave of the enclave pod is also certified by the same second key to share information among the component enclaves, wherein the voting process includes using, by each component enclave its respective key fragment to sign the enclave manifest; and in response to signing the enclave manifest with the respective key fragments, launching the enclave pod. launching a root enclave; accessing an enclave manifest by the root enclave, wherein the enclave manifest specifies, for each of a plurality of component enclaves, a particular role for the respective component enclave; and instantiating each of the component enclaves, each component enclave configured to perform its respective role; wherein the root enclave and the plurality of component enclaves form an enclave pod; wherein each component enclave of the enclave pod has a respective first key to securely communicate with other component enclaves of the enclave pod through a voting process, wherein each respective first key is certified by the root enclave by use of a second key, wherein the respective first keys are respective fragments of an entire first key that has been split into the respective fragments, and wherein the entire first key is an entire enclave pod signing key, and wherein each component enclave of the enclave pod ensures that the first key of another component enclave of the enclave pod is also certified by the same second key to share information among the component enclaves, wherein the voting process includes using, by each component enclave its respective key fragment to sign the enclave manifest; and in response to signing the enclave manifest with the respective key fragments, launching the enclave pod.
A method for the manufacture of an edible protein-based fibrous structure, comprising contacting an aqueous solution of a non-denatured potato protein with a carboxy methyl cellulose having a Mw of at least 150,000 Dalton (Da) to yield a fiber forming solution, which fiber forming solution has a total dry matter content in the range of 0.5 to 15%, and wherein said contacting is performed in the pH range of 2 to 5 and while mixing, thereby inducing the formation of a potato protein-based edible fibrous structure.
A compound semiconductor device having a transistor structure, comprising: a substrate; a first layer formed over the substrate and made of GaN; a second layer (4, 14, 24) formed over the first layer and formed of (In x Al 1-x) y Ga 1-y N (0<x<1, 0<y≤1); a third layer formed over the second layer (4, 14, 24) and comprising GaN whose energy bandgap is smaller than the second layer (4, 14, 24); and a channel region layer formed over the third layer, a lattice constant of the second layer (4, 14, 24) is larger than that of the first layer, and characterized in that an energy bandgap of the second layer (4, 14, 24) is larger than that of the first layer. a substrate; a first layer formed over the substrate and made of GaN; a second layer (4, 14, 24) formed over the first layer and formed of (In x Al 1-x) y Ga 1-y N (0<x<1, 0<y≤1); a third layer formed over the second layer (4, 14, 24) and comprising GaN whose energy bandgap is smaller than the second layer (4, 14, 24); and a channel region layer formed over the third layer, a lattice constant of the second layer (4, 14, 24) is larger than that of the first layer, and characterized in that an energy bandgap of the second layer (4, 14, 24) is larger than that of the first layer.
A method for use in testing one or more components of target hardware using In-Circuit Emulation ICE, the method comprising: receiving a plurality of scan segment operations generated by a plurality of target ICE controllers of at least one ICE host, the plurality of target ICE controllers associated with a plurality of components of the target hardware; scheduling the scan segment operations, based at least in part on a scan chain of the target hardware, to form thereby a scheduled set of scan segment operations; and propagating the scheduled set of scan segment operations toward a processor configured for executing the scheduled set of scan segment operations for testing one or more components of the target hardware. receiving a plurality of scan segment operations generated by a plurality of target ICE controllers of at least one ICE host, the plurality of target ICE controllers associated with a plurality of components of the target hardware; scheduling the scan segment operations, based at least in part on a scan chain of the target hardware, to form thereby a scheduled set of scan segment operations; and propagating the scheduled set of scan segment operations toward a processor configured for executing the scheduled set of scan segment operations for testing one or more components of the target hardware.
A system of an agricultural vehicle and a connected implement, wherein each of the vehicle and implement has a plurality of electric drives (36, 46) each of which is electrically connected to a common connection of the system and is electrically connectable to a direct current supply of the system, wherein each electric drive has an associated Y capacitor between a direct current supply connection and the common connection, the system further comprising an electronic controller coupled with a data store holding a threshold value, wherein the controller is coupled to receive capacitance values for each of the electric drives and is arranged to: - sum the received capacitance values, and - to compare the magnitude of the sum with the stored threshold value; characterised in that the controller is further arranged to:, - where the threshold value is exceeded, to automatically perform a predetermined sequence of selectively electrically disconnecting individual electric drives (36, 46) from the direct current supply until the magnitude of the sum of the received capacitance values is less than or equal to the threshold value; and wherein the data store holds a priority list identifying the plurality of electric drives (36, 46) of the system in sequence, and the predetermined sequence of electrical disconnection performed by the electronic controller comprises firstly disconnecting all currently inactive electric drives and subsequently, if the magnitude of the sum of the received capacitance values is still greater than the threshold value, sequentially disconnecting the remaining electric drives in the sequence defined in the priority list until the magnitude of the sum of the received capacitance values is less than or equal to the threshold value. - sum the received capacitance values, and - to compare the magnitude of the sum with the stored threshold value; characterised in that the controller is further arranged to:, - where the threshold value is exceeded, to automatically perform a predetermined sequence of selectively electrically disconnecting individual electric drives (36, 46) from the direct current supply until the magnitude of the sum of the received capacitance values is less than or equal to the threshold value; and
A light-emitting diode package, comprising: an LED die comprising a stack of semiconductor layers including an active region; a wavelength converting element over the LED die, the wavelength converting element comprising one or more substantially curved emitting surfaces that produce a desired angular color distribution pattern, each curved emitting surface having a change in height from the lowest point to the highest point of the curved surface that is greater than 10% of the average height of the wavelength converting element; a lens (102, 402) over the LED die, the lens (102, 402) having a bottom defining one or more curved surfaces, wherein the wavelength converting element comprises a wavelength converting material disposed over the one or more curved surfaces of the lens (102, 402) to form the one or more curved emitting surfaces of the wavelength converting element; characterized in that it further comprises a side coating (208, 508) comprising a reflective or scattering material around the edge of the wavelength converting element. an LED die comprising a stack of semiconductor layers including an active region; a wavelength converting element over the LED die, the wavelength converting element comprising one or more substantially curved emitting surfaces that produce a desired angular color distribution pattern, each curved emitting surface having a change in height from the lowest point to the highest point of the curved surface that is greater than 10% of the average height of the wavelength converting element; a lens (102, 402) over the LED die, the lens (102, 402) having a bottom defining one or more curved surfaces, wherein the wavelength converting element comprises a wavelength converting material disposed over the one or more curved surfaces of the lens (102, 402) to form the one or more curved emitting surfaces of the wavelength converting element; characterized in that it further comprises a side coating (208, 508) comprising a reflective or scattering material around the edge of the wavelength converting element.
An embedded-outer rotor motor direct driven mower driving wheel, characterized in that: the embedded-outer rotor motor direct driven mower driving wheel comprises a driving wheel main body formed by the assembling of a wheel side cover I, a wheel side cover II, and a wheel body sandwiched between the wheel side cover I and the wheel side cover II, the wheel side cover I, the wheel side cover II and the wheel body enclose a cavity, an outer rotor motor is mounted in the cavity, an outer rotor portion of the outer rotor motor is fixedly arranged relative to the driving wheel main body, a stator portion of the outer rotor motor is provided with a fixed member penetrating through the wheel side cover I and extending out of the driving wheel main body, and the wheel side cover I is provided with a shaft hole I allowing the fixed member to penetrate through, characterized in that the outer edges of both the wheel side cover I and the wheel side cover II are provided with a plurality of convex teeth, and the convex teeth on the wheel side cover I and the convex teeth on the wheel side cover II are distributed in a staggered manner, the outer circumferential surface of the wheel body is provided with a plurality of concave arc surfaces, a protrusion I is formed at where adjacent concave arc surfaces are connected, the convex teeth on the wheel side cover II are arranged corresponding to the protrusion I on the wheel body, and the outer edge of the wheel side cover I located between two adjacent convex teeth is provided with a protrusion II arranged corresponding to the protrusion I on the wheel body.
A method of testing an austenitic steel reformer tube comprising: providing a sample austenitic steel reformer tube to be tested; choosing one or more testing positions on said austenitic steel reformer tube; characterized in that it comprises: transmitting two sinusoidal electromagnetic signals, each having a different frequency F 1 and F 2, into a test position on the austenitic steel reformer tube; receiving a response signal from said test position; and analyzing said received response signal's fundamental and intermodulation frequencies to determine the state of the austenitic steel reformer tube at said test position. providing a sample austenitic steel reformer tube to be tested; choosing one or more testing positions on said austenitic steel reformer tube; transmitting two sinusoidal electromagnetic signals, each having a different frequency F 1 and F 2, into a test position on the austenitic steel reformer tube; receiving a response signal from said test position; and analyzing said received response signal's fundamental and intermodulation frequencies to determine the state of the austenitic steel reformer tube at said test position.
Method for the continuous production of bakery products, especially bakery products composed of wheat doughs, comprising the steps of: a) producing at least one dough in at least one kneading device; b) introducing the at least one dough from the kneading device into at least one depolymerizer comprising at least one conveying worm and at least one eccentric worm pump for depolymerizing and degassing the dough; through use of enzymes, more particularly a glucose oxidase, the gluten network is regenerated after the depolymerization in the course of further processing, and the shearing forces are adapted to the flour grade through differential shearing in the depolymerizer; c) introducing the depolymerized dough into at least one dough strip former to form a dough strip; d) folding the dough strip; e) guiding the folded dough strip into at least one rolling device; f) cutting the dough strip using at least one cutting device into a number of dough portions; g) optionally flat-rolling the dough portions; h) depositing the formed dough portions onto baking sheets or into baking moulds; i) fermenting the dough portions; and j) baking the dough portions. a) producing at least one dough in at least one kneading device; b) introducing the at least one dough from the kneading device into at least one depolymerizer comprising at least one conveying worm and at least one eccentric worm pump for depolymerizing and degassing the dough; through use of enzymes, more particularly a glucose oxidase, the gluten network is regenerated after the depolymerization in the course of further processing, and the shearing forces are adapted to the flour grade through differential shearing in the depolymerizer; c) introducing the depolymerized dough into at least one dough strip former to form a dough strip; d) folding the dough strip; e) guiding the folded dough strip into at least one rolling device; f) cutting the dough strip using at least one cutting device into a number of dough portions; g) optionally flat-rolling the dough portions; h) depositing the formed dough portions onto baking sheets or into baking moulds; i) fermenting the dough portions; and j) baking the dough portions.
Method for producing curedformed components, in particular structure or body components of motor vehicles, a metal blank being heated, subsequently being hot formed in the forming chamber of a hot forming mould (1; 12) to form a formed component and being cured in the forming chamber of the hot forming mould (1; 12) by contact with a coolant, for which purpose the coolant isfed into the forming chamber via feed channels (7, 8), characterised in that the state of aggregation of the coolant can be set by the pressure and/or the injection duration of the coolant.
Method for transporting an object which can each be received by or unloaded from vehicles, wherein the vehicles each have a top-arranged conveying unit with conveying rollers for transporting objects, control electronics which have a contactless data connection to a central computer and a drive with rollers, with which the vehicle is movable over the ground, wherein the vehicles are arranged movably within an installation along a straight- or curvedly-running travel path, wherein in a first step a first vehicle is moved up to a respective neighbouring vehicle along the travel path and in a second step the object received by the first vehicle is transferred to the neighbouring vehicle along the travel path, wherein in a third step the first vehicle is moved up to the respective other neighbouring vehicle along the travel path, wherein the steps are repeated, characterised in that the vehicle has at its top side the conveying unit, so that the object is further conveyed to the respectively neighbouring vehicle or is received by such a vehicle, wherein one of the vehicles has at its bottom side a secondary winding, which can be inductively coupled to a primary conductor arranged on the ground, wherein a capacitance is connected in series or parallel with the secondary winding in such a manner that the associated resonant frequency is equal to an alternating current fed into the primary conductor, wherein at at least one side face of each vehicle a coil winding is arranged, wherein the vehicle has a first energy store, wherein energy consumed by the coil winding of a respective vehicle is transmittable to the first energy store of the vehicle, wherein at least the drive of the vehicle can be supplied from the first energy store, wherein when the neighbouring vehicles run against one another energy is transmitted from a first of the two vehicles which have run against one another to the other vehicle by means of the coil windings then inductively coupled.