mhurhangee/patent-ind-claim-en huggingface dataset:
A microscope imaging system , comprising: a specimen fixture comprising an illumination side , an imaging side and at least one specimen receptacle which is disposed in a specimen plane of the specimen fixture ; a translation stage which is disposed in fixed relation to the specimen fixture and which faces the imaging side of the specimen fixture ; an objective which is operatively coupled to the translation stage , which is laterally translatable in an x-y plane that is substantially parallel to the specimen plane , which includes an image input axis disposed towards the imaging side of the specimen fixture and which includes a object plane which is substantially perpendicular to the image input axis and adjustable to be coplanar with the specimen plane ; an illumination screen disposed in fixed relation to the specimen fixture , the illumination screen including an array of light emitting pixels and a flat illumination surface which is substantially parallel to the specimen plane and which faces the illumination side of the specimen fixture ; and a controller which is operatively coupled to the illumination screen and the translation stage and which is configured to coordinate transmission of an illumination signal to the illumination screen which produces emission of a light pattern from the flat illumination surface which has a light pattern axis , wherein the light pattern axis comprises an axis of symmetry of the light pattern , that remains aligned with the image input axis of the objective as the objective is translated in the x-y plane from a first position to a second position. a specimen fixture comprising an illumination side , an imaging side and at least one specimen receptacle which is disposed in a specimen plane of the specimen fixture ; a translation stage which is disposed in fixed relation to the specimen fixture and which faces the imaging side of the specimen fixture ; an objective which is operatively coupled to the translation stage , which is laterally translatable in an x-y plane that is substantially parallel to the specimen plane , which includes an image input axis disposed towards the imaging side of the specimen fixture and which includes a object plane which is substantially perpendicular to the image input axis and adjustable to be coplanar with the specimen plane ; an illumination screen disposed in fixed relation to the specimen fixture , the illumination screen including an array of light emitting pixels and a flat illumination surface which is substantially parallel to the specimen plane and which faces the illumination side of the specimen fixture ; and a controller which is operatively coupled to the illumination screen and the translation stage and which is configured to coordinate transmission of an illumination signal to the illumination screen which produces emission of a light pattern from the flat illumination surface which has a light pattern axis , wherein the light pattern axis comprises an axis of symmetry of the light pattern , that remains aligned with the image input axis of the objective as the objective is translated in the x-y plane from a first position to a second position.
A system for an aircraft, the system comprising: a heater comprising: a resistive heating element ; and insulation surrounding the resistive heating element ; wherein the resistive heating element is configured such that a first current (I 1 ) can flow into the resistive heating element to provide heat and a second current (I 2 ) can flow out of the resistive heating element ; a leakage sensor configured to produce a leakage sensor signal (V L ) representing a leakage current (I L ) from the heater ; and a prediction processor configured to predict heater failure based on the leakage sensor signal (V L ); wherein the heater further comprises a metallic sheath surrounding the insulation such that the insulation is between the resistive heating element and the metallic sheath ; and characterised in that the leakage sensor is connected between the metallic sheath and an electrical ground. a resistive heating element ; and insulation surrounding the resistive heating element ; wherein the resistive heating element is configured such that a first current (I 1 ) can flow into the resistive heating element to provide heat and a second current (I 2 ) can flow out of the resistive heating element ; a leakage sensor configured to produce a leakage sensor signal (V L ) representing a leakage current (I L ) from the heater ; and a prediction processor configured to predict heater failure based on the leakage sensor signal (V L ); wherein the heater further comprises a metallic sheath surrounding the insulation such that the insulation is between the resistive heating element and the metallic sheath ; and characterised in that the leakage sensor is connected between the metallic sheath and an electrical ground.
A device for spinal cord stimulation, configured for traversing and securing to the dura surrounding the spinal cord of a subject, wherein the device includes the following components: a transdural portion ; an intradural assembly ; an extradural assembly ; a plurality of electrodes on the transdural portion and/or the intradural assembly ; and wire leads connecting through the transdural portion to the electrodes ; said device being transformable from an open position to a clamped position; wherein the open position configures the device for insertion through an incision in the dura, placing the intradural assembly inside the dura ; wherein the clamped position secures the device to the dura with the electrodes in direct contact with the cerebrospinal fluid but not in direct contact with the spinal cord by clamping the dura between the intradural assembly and the extradural assembly . a transdural portion ; an intradural assembly ; an extradural assembly ; a plurality of electrodes on the transdural portion and/or the intradural assembly ; and wire leads connecting through the transdural portion to the electrodes ; said device being transformable from an open position to a clamped position; wherein the open position configures the device for insertion through an incision in the dura, placing the intradural assembly inside the dura ; wherein the clamped position secures the device to the dura with the electrodes in direct contact with the cerebrospinal fluid but not in direct contact with the spinal cord by clamping the dura between the intradural assembly and the extradural assembly .
A cultivation system capable of controlling a local cultivation environment, comprising: a bed where a crop is planted; a heat exchange medium part disposed under and close to the bed : a plurality of air circulation pipes installed at regular intervals along the longitudinal direction of the bed to move air in a root zone of an upper portion of the bed to a root zone of a lower portion of the bed, and the lower side thereof is installed upright with respect to the bed 1 to face the heat exchange medium part ; and an air suction means connected to suck air into the air circulation pipes . a bed where a crop is planted; a heat exchange medium part disposed under and close to the bed : a plurality of air circulation pipes installed at regular intervals along the longitudinal direction of the bed to move air in a root zone of an upper portion of the bed to a root zone of a lower portion of the bed, and the lower side thereof is installed upright with respect to the bed 1 to face the heat exchange medium part ; and an air suction means connected to suck air into the air circulation pipes . a plurality of air circulation pipes installed at regular intervals along the longitudinal direction of the bed to move air in a root zone of an upper portion of the bed to a root zone of a lower portion of the bed, and the lower side thereof is installed upright with respect to the bed 1 to face the heat exchange medium part ; and an air suction means connected to suck air into the air circulation pipes .
A method of identifying and/or characterising ions, the method comprising: separating analyte ions according to a first physico-chemical property; selecting first ions of the analyte ions, and activating, fragmenting or reacting the first ions to produce first product ions; separating the first product ions according to the first physico-chemical property, and determining a pattern of the first product ions; and identifying and/or characterising the first ions using the pattern of the first product ions; wherein the analyte ions comprise isomeric polymeric analyte ions of a particular order, and the first product ions comprise polymeric product ions of a plurality of different orders, each order of the plurality of different orders being less than the particular order of the isomeric polymeric analyte ions; characterised in that the pattern of the first product ions comprises, in respect of one or more or each order of the plurality of different orders of the first product ions, the number of isomers of that order that are present in the first product ions. separating analyte ions according to a first physico-chemical property; selecting first ions of the analyte ions, and activating, fragmenting or reacting the first ions to produce first product ions; separating the first product ions according to the first physico-chemical property, and determining a pattern of the first product ions; and identifying and/or characterising the first ions using the pattern of the first product ions; wherein the analyte ions comprise isomeric polymeric analyte ions of a particular order, and the first product ions comprise polymeric product ions of a plurality of different orders, each order of the plurality of different orders being less than the particular order of the isomeric polymeric analyte ions; characterised in that the pattern of the first product ions comprises, in respect of one or more or each order of the plurality of different orders of the first product ions, the number of isomers of that order that are present in the first product ions.
A material extrusion additive manufacturing process, comprising the steps of: a) selecting an amorphous thermoplastic polymer composition, said composition as a whole having a certain Tg, measured by DSC according to the standard ASTM E1356, b) selecting conditions sufficient to provide an internal temperature of the composition at the point of printing, wherein the Tg of the composition as a whole is at least 25°C, more preferably at least 35°C, more preferably at least 45°C, more preferably at least 55°C, at least 65°C and at least 75°C below the internal temperature, c) melt extrusion printing said amorphous thermoplastic polymer to form an article, wherein the difference in temperature between the amorphous thermoplastic polymer Tg and the internal temperature of a given printed dot or line of the thermoplastic polymer composition remains for at least 5 minutes, preferably at least 10 minutes, more preferably at least 15 minutes, and most preferably at least 20 minutes following printing. a) selecting an amorphous thermoplastic polymer composition, said composition as a whole having a certain Tg, measured by DSC according to the standard ASTM E1356, b) selecting conditions sufficient to provide an internal temperature of the composition at the point of printing, wherein the Tg of the composition as a whole is at least 25°C, more preferably at least 35°C, more preferably at least 45°C, more preferably at least 55°C, at least 65°C and at least 75°C below the internal temperature, c) melt extrusion printing said amorphous thermoplastic polymer to form an article,
Network device (ND), comprising two interfaces for connection to an access-protected access point (AP) of a data network (DN) and to a network component (NC) that is intended to be allowed direct access to the data network (DN) via the access point (AP), wherein the network component (NC) does not yet store authentication data for accessing the data network (DN), wherein the network device (ND) is configured such that it authenticates itself at the access point (AP) using authentication data (CER) when the access point (AP) is connected and the network component (NC) is connected and, if authentication is successful, permits limited access by the connected network component (NC) to the data network (DN) via the access point (AP) for at least such network components (NC) as satisfy one or more predetermined criteria, wherein the limited access is restricted to the network component (NC) requesting authentication data for the access point (AP) from a registration server (RS) in the data network (DN) .
Supply device for at least one fuel cell , comprising a first fluid circuit and a second fluid circuit , one to supply the/each fuel cell with fuel and the other to supply the/each fuel cell with combustion agent, whereby the first circuit comprises a first supply line having a first electrically controlled solenoid valve that supplies at least one first supply branch , whereby each first supply branch supplies one respective fuel cell , and a first starter configured to allow for the circulation of fluid in the first circuit towards the/each fuel cell when the electrical control of the first solenoid valve is inoperative, whereby the second circuit comprises a second supply line having a second electrically controlled solenoid valve that supplies at least one second supply branch , whereby each second supply branch supplies one respective fuel cell , and a second starter configured to allow for the circulation of fluid in the second circuit towards the/each fuel cell when the electrical control of the second solenoid valve is inoperative, said device further comprising at least one pressure-actuated pressure reducer arranged on the first circuit and actuated by a pressure in the second circuit , characterized in that the first solenoid valve and the second solenoid valve have respectively a first actuation member constituting the first starter and a second actuation member constituting the second starter, whereby the first solenoid valve and the second solenoid valve can be controlled manually using respectively the first actuation member and the second actuation member , or the first starter and the second starter respectively comprise a first bypass line for the first solenoid valve having a first bypass valve and a second bypass line for the second solenoid valve having a second bypass valve , the first bypass valve and the second bypass valve being manually actuatable.
A straddled vehicle comprising, behind a front cover , a down frame extending obliquely downward from a head pipe toward a rear, a pair of right and left lower frames extending downward from a right and a left of a lower portion of the down frame and then extending below a step floor toward the rear, and a pair of right and left upper frames extending obliquely downward from a middle portion of the down frame toward the rear to be coupled to the right and left lower frames , wherein a fuel tank is disposed in a space surrounded with the down frame , the right and left lower frames and the right and left upper frames , and wherein the fuel tank comprises a flange extending toward the rear of the vehicle in a side view of the vehicle, characterised in that an opening is provided in the front cover , the fuel tank is provided behind the opening , a radiator is disposed behind the fuel tank , a battery is disposed above the radiator , and the battery is stored in a case .
Robotic weed treatment processing equipment for agriculture robotic system , comprising: an image recognition device for identification of weeds, a weed treatment processing device characterized in that the weed treatment processing equipment further comprises: a plant squeezer for squeezing cultivated plants , comprising a narrowing end portion and two longitudinal sides , said two longitudinal sides extending backwards from the narrowing end portion when the robotic weed treatment processing equipment is mounted on the agriculture robotic system ; a plant squeezer actuator operably connected to the plant squeezer for vertical displacement of the plant squeezer when the robotic weed treatment processing equipment is mounted on the agriculture robotic system ; wherein the pant squeezer is configured to squeeze two parallel rows of cultivated plants to increase the weed treatment surface between said two parallel rows of cultivated plants . an image recognition device for identification of weeds, a weed treatment processing device characterized in that the weed treatment processing equipment further comprises: a plant squeezer for squeezing cultivated plants , comprising a narrowing end portion and two longitudinal sides , said two longitudinal sides extending backwards from the narrowing end portion when the robotic weed treatment processing equipment is mounted on the agriculture robotic system ; a plant squeezer actuator operably connected to the plant squeezer for vertical displacement of the plant squeezer when the robotic weed treatment processing equipment is mounted on the agriculture robotic system ; wherein the pant squeezer is configured to squeeze two parallel rows of cultivated plants to increase the weed treatment surface between said two parallel rows of cultivated plants . a plant squeezer for squeezing cultivated plants , comprising a narrowing end portion and two longitudinal sides , said two longitudinal sides extending backwards from the narrowing end portion when the robotic weed treatment processing equipment is mounted on the agriculture robotic system ; a plant squeezer actuator operably connected to the plant squeezer for vertical displacement of the plant squeezer when the robotic weed treatment processing equipment is mounted on the agriculture robotic system ; wherein the pant squeezer is configured to squeeze two parallel rows of cultivated plants to increase the weed treatment surface between said two parallel rows of cultivated plants .
A fault information providing server which is connected to a processing server group configured from a plurality of servers, and which provides information related to a fault that occurred in the processing server group to a user of a service provided by the processing server group, comprising: a fault occurrence/recovery management unit which manages fault occurrence of the processing server group; a log management unit which manages log information related to a history of service provided by each server of the processing server group; a rule management unit which manages rules related to a service impact representing an impact on the service caused by the fault; a service impact calculation unit which calculates the service impact based on the log information and the rules; and a service impact notification unit which notifies the service impact calculated by the service impact calculation unit to the user, and an in-vehicle terminal management unit which manages a plurality of in-vehicle terminals in group units, each of the in-vehicle terminals being held by the user and receiving the service, wherein the service impact calculation unit calculates the service impact for each group of the in-vehicle terminals. a fault occurrence/recovery management unit which manages fault occurrence of the processing server group; a log management unit which manages log information related to a history of service provided by each server of the processing server group; a rule management unit which manages rules related to a service impact representing an impact on the service caused by the fault; a service impact calculation unit which calculates the service impact based on the log information and the rules; and a service impact notification unit which notifies the service impact calculated by the service impact calculation unit to the user, and an in-vehicle terminal management unit which manages a plurality of in-vehicle terminals in group units, each of the in-vehicle terminals being held by the user and receiving the service, wherein the service impact calculation unit calculates the service impact for each group of the in-vehicle terminals.
A high-Mn steel comprising a chemical composition containing, in mass%, C: 0.10 % or more and 0.70 % or less, Si: 0.05 % or more and 0.50 % or less, Mn: 20 % or more and 30 % or less, P: 0.030 % or less, S: 0.0070 % or less, Al: 0.01 % or more and 0.07 % or less, Cr: 0.5 % or more and 7.0 % or less, Ni: 0.01 % or more and less than 0.1 %, Ca: 0.0005 % or more and 0.0050 % or less, N: 0.0050 % or more and 0.0500 % or less, O: 0.0050 % or less, Ti: less than 0.0050 %, and Nb: less than 0.0050 %, optionally, in mass%, at least one selected from the group consisting of Cu: 1.0 % or less, Mo: 2.0 % or less, V: 2.0 % or less, W: 2.0 % or less, Mg: 0.0005 % or more and 0.0050 % or less, and REM: 0.0010 % or more and 0.0200 % or less, the balance consisting of Fe and inevitable impurities, and a microstructure having austenite as a base phase, wherein the austenite phase has an area ratio of 90% or more, where the austenite has a grain size of 1 μm or more and a standard deviation of 9 μm or less, measured with the methods as of the description. a chemical composition containing, in mass%, C: 0.10 % or more and 0.70 % or less, Si: 0.05 % or more and 0.50 % or less, Mn: 20 % or more and 30 % or less, P: 0.030 % or less, S: 0.0070 % or less, Al: 0.01 % or more and 0.07 % or less, Cr: 0.5 % or more and 7.0 % or less, Ni: 0.01 % or more and less than 0.1 %, Ca: 0.0005 % or more and 0.0050 % or less, N: 0.0050 % or more and 0.0500 % or less, O: 0.0050 % or less, Ti: less than 0.0050 %, and Nb: less than 0.0050 %, C: 0.10 % or more and 0.70 % or less, Si: 0.05 % or more and 0.50 % or less, Mn: 20 % or more and 30 % or less, P: 0.030 % or less, S: 0.0070 % or less, Al: 0.01 % or more and 0.07 % or less, Cr: 0.5 % or more and 7.0 % or less, Ni: 0.01 % or more and less than 0.1 %, Ca: 0.0005 % or more and 0.0050 % or less, N: 0.0050 % or more and 0.0500 % or less, O: 0.0050 % or less, Ti: less than 0.0050 %, and Nb: less than 0.0050 %, optionally, in mass%, at least one selected from the group consisting of Cu: 1.0 % or less, Mo: 2.0 % or less, V: 2.0 % or less, W: 2.0 % or less, Mg: 0.0005 % or more and 0.0050 % or less, and REM: 0.0010 % or more and 0.0200 % or less, the balance consisting of Fe and inevitable impurities, and Cu: 1.0 % or less, Mo: 2.0 % or less, V: 2.0 % or less, W: 2.0 % or less, Mg: 0.0005 % or more and 0.0050 % or less, and REM: 0.0010 % or more and 0.0200 % or less, the balance consisting of Fe and inevitable impurities, and a microstructure having austenite as a base phase, wherein the austenite phase has an area ratio of 90% or more, where the austenite has a grain size of 1 μm or more and a standard deviation of 9 μm or less, measured with the methods as of the description.
Motor vehicle lock having a lock mechanism with a turning bolt and a retaining pawl , wherein the turning bolt can be moved into an open position, into a pre-latching position and into a main latching position, wherein the retaining pawl can be moved into a drop-in position in which it secures the turning bolt in the main latching position and in the pre-latching position, and into a lift-out position in which it releases the turning bolt , wherein a circuit arrangement is provided for sensing locked states with a turning bolt switch for sensing the turning bolt position and a retaining pawl switch for sensing the retaining pawl position, characterized in that the turning bolt switch can be moved into three switched positions depending on the turning bolt position, and in that the retaining pawl switch can be moved into two switched positions depending on the retaining pawl position.