mhurhangee/ep-ind-claims huggingface dataset:
A method for extracting target components from a liquid sample, comprising the following steps: a) mixing the sample comprising the target components, a liquid carrier, which is immiscible with the sample and which has another mass density than the sample, and magnetic particles such that the target components bind to the magnetic particles and arranging the mixture such that the arrangement is stable under the influence of gravity (g); b) generating a magnetic field that moves the magnetic particles to which the target components are bound from the sample into the carrier, characterized in that the magnetic particles are non-wetting with respect to the carrier. a) mixing the sample comprising the target components, a liquid carrier, which is immiscible with the sample and which has another mass density than the sample, and magnetic particles such that the target components bind to the magnetic particles and arranging the mixture such that the arrangement is stable under the influence of gravity (g); b) generating a magnetic field that moves the magnetic particles to which the target components are bound from the sample into the carrier,
Scanning device with a handle to be held by an operator and a mouthpiece to be inserted into the mouth of a patient, wherein the scanning device comprises a detection apparatus and a scanning apparatus provided in the mouthpiece, wherein, when the mouthpiece is inserted into the mouth of a patient, during each recording the detection apparatus in conjunction with the scanning apparatus scans and three-dimensionally measures one section of a dental arch in the mouth, wherein many individual scans of different sections of the dental arch are recorded and combined into one overall image of the dental arch, wherein the scanning device further comprises the following: a drive apparatus, which drives the detection apparatus in such a way that it moves from one section to a next section of the dental arch to perform a respective single scan, and a control apparatus, which controls the drive apparatus in such a way that it moves the detection apparatus to a desired location of the dental arch, wherein the detection apparatus comprises at least one mirror (30, 40), which is moved in a motor-driven manner in the mouthpiece by means of the drive apparatus in such a way that said mirror deflects a scan area onto a desired location of the dental arch, characterized in that a sheath, which is at least partially transparent, is provided for the mouthpiece, wherein precise calibration marks are applied to the sheath of the mouthpiece that are scanned together with a respective individual scan. a drive apparatus, which drives the detection apparatus in such a way that it moves from one section to a next section of the dental arch to perform a respective single scan, and a control apparatus, which controls the drive apparatus in such a way that it moves the detection apparatus to a desired location of the dental arch, wherein the detection apparatus comprises at least one mirror (30, 40), which is moved in a motor-driven manner in the mouthpiece by means of the drive apparatus in such a way that said mirror deflects a scan area onto a desired location of the dental arch, characterized in that a sheath, which is at least partially transparent, is provided for the mouthpiece, wherein precise calibration marks are applied to the sheath of the mouthpiece that are scanned together with a respective individual scan.
A voltage management system, comprising: a conversion configuration table that stores configuration information associated with a plurality of voltage signals, where the configuration information is associated with an analog-to-digital conversion process; a voltage information management module configured to manage the analog-to-digital conversion of the plurality of voltage signals based on the conversion configuration table to obtain digital voltage values indicative of voltage levels of the plurality of voltage signals; and a processor configured to communicate with the voltage information management module to process and store the digital voltage values in a memory device, wherein the conversion configuration table includes a multiplexor select value indicating a multiplexor to be utilized to sample respective voltage signal of the plurality of voltage signals, a multiplexor input value indicating an input port of the multiplexor for sampling the respective voltage signal, a scaling denominator value and a scaling numerator value for scaling the respective sampled voltage signal by a ratio of said scaling numerator value and said scaling denominator value to obtain a respective digital voltage value representing the respective sampled voltage signal, and a destination address which indicates a storage address in the memory device for storing the respective digital voltage value. a conversion configuration table that stores configuration information associated with a plurality of voltage signals, where the configuration information is associated with an analog-to-digital conversion process; a voltage information management module configured to manage the analog-to-digital conversion of the plurality of voltage signals based on the conversion configuration table to obtain digital voltage values indicative of voltage levels of the plurality of voltage signals; and a processor configured to communicate with the voltage information management module to process and store the digital voltage values in a memory device, wherein the conversion configuration table includes a multiplexor select value indicating a multiplexor to be utilized to sample respective voltage signal of the plurality of voltage signals, a multiplexor input value indicating an input port of the multiplexor for sampling the respective voltage signal, a scaling denominator value and a scaling numerator value for scaling the respective sampled voltage signal by a ratio of said scaling numerator value and said scaling denominator value to obtain a respective digital voltage value representing the respective sampled voltage signal, and a destination address which indicates a storage address in the memory device for storing the respective digital voltage value.
An attachment device for a telehandler designed to be connected to an operating arm of the telehandler and comprising a front frame designed for removably attaching an accessory for engaging a load, such as a fork, a side shift carriage, a winch or a loading platform, wherein said frame comprises two lateral side elements and two crosspieces, of which one upper and one lower, which join the side elements to each other, at least one of said crosspieces having an inner side oblique relative to a horizontal plane; the attachment device being characterized in that both the crosspieces have a triangular cross-section.
A tire having an outer surface comprising a decorative portion which is visible and provided with micro-protuberances at a density of from 2 to 10 micro-protuberances per 1 sq.mm, characterized in that the micro-protuberances include a recessed micro-protuberance provided in its top surface with a recess.
Method for error recognition in a control system of a medical treatment and/or diagnostic device, wherein the control system processes data in a regular operating mode and the control system feeds test data of a test dataset T(E,A) to and checks a safety-critical component of the control system in a test mode, characterized in that the test dataset T(E,A) contains pairs of values as test data, namely input values that were generated during real operation during the correct mode of operation, and associated output values that were generated by the safety-critical component during the correct mode of operation, and in that, in the test mode, associated output values (A') are generated from the input values by way of the safety-critical component and the generated output values (A') are compared with the stored output values of the test dataset T(E,A), wherein a malfunction is recognized if the output values (A') generated in the test mode deviate from the stored output values.
Electrically actuated friction brake with a brake pad actuated by an actuation device, wherein for braking the actuation device is driven by a spring and is held open by an electrical actuator, so that the spring actuates the friction brake in case of a power loss, wherein a first transmission element, that is connected to the brake pad, and a second transmission element with an elevation curve are provided and a coupling element is provided on the first transmission element, wherein a follower element is arranged on the coupling element that interacts with the elevation curve and the springs acts on the actuation device, characterized in that the spring rotates the second transmission element with the elevation curve, so that the follower element follows the elevation curve under the action of the spring for actuating the first transmission element.
A tool gripper of a transport crane for pressing tools, on which a pressing tool can be fixed in a stationary manner in relation to the tool gripper and by means of which the pressing tool can be set down on a sliding table of a press and picked up from the sliding table of the press, wherein a set down and pick-up position of the tool gripper in relation to the sliding table is stored in a control device of the transport crane, and wherein centring members are formed on the pressing tool, which, together with centring members formed on the sliding table, secure a defined spatial end positioning of the pressing tool on a receiving surface of the sliding table, characterized in that a sensor device (7, 8) is arranged on the tool gripper of the transport crane in a stationary manner in relation to the tool gripper, which sensor device cooperates with sensor elements fixed on the sliding table of the press in an arrangement that is stationary in relation to the sliding table, and by means of which it can be determined whether the tool gripper of the transport crane is in a position in which the pressing tool arranged on the tool gripper, when lowered onto the receiving surface of the sliding table of the press, engages its centring members with the centring members on the sliding table side, and in that a pressing tool position and pressing tool orientation control associated with the tool gripper is connected to the sensor device (7, 8), by means of which the tool gripper and with it the pressing tool can be moved into a position in which, when the tool gripper or pressing tool are lowered, the centring members on the pressing tool side enter into centring engagement with the centring members on the sliding table side if the sensor device (7, 8) on the tool gripper side detects that the position of the pressing tool deviates from a range in which centring or end positioning of the pressing tool on the sliding table is ensured by means of the centring members on the pressing tool side and the centring members on the sliding table side.
A tunnel lining with a composite panel, comprising (i) a top metal cover layer comprising aluminum, (ii) a bottom metal cover layer comprising aluminum, and (iii) a metal hollow chamber plate comprising aluminum arranged therebetween, characterized in that the top cover layer has a hydrophobic coating with a fluorinated polymer, preferably PVDF. (i) a top metal cover layer comprising aluminum, (ii) a bottom metal cover layer comprising aluminum, and (iii) a metal hollow chamber plate comprising aluminum arranged therebetween, characterized in that the top cover layer has a hydrophobic coating with a fluorinated polymer, preferably PVDF.
A layered heat exchanger as a welded ferritic heat exchanger for high temperature application, whose layered plates (9, 10) are held as a folded sheet block between cover plates (7, 8) and an outer housing, wherein the layered plates (9, 10) are formed as folded sheets whose material is a ferritic Al containing Fe base alloy, wherein aluminium is added to the cover plates (7, 8) and the housing during production, wherein an alloy which contains aluminium is provided for the cover plates (7, 8) and for the housing during production, wherein a ferritic Al containing Fe base alloy is provided for the cover plates (7, 8) and/or the housing during production, characterised in that its strength is higher than the one of the material of the layered plates (9, 10).
System comprising a field device and a control device, wherein the field device comprises a field device controller and a field device transmitter, wherein the control device comprises a control device controller and a control device transmitter, wherein the field device transmitter and the control device transmitter have a transmission path between them, wherein the field device controller and the control device controller are adapted for bidirectional transmission of messages between one another according to a communication protocol via the field device transmitter, the transmission path and the control device transmitter, and wherein the communication protocol implements the transmission of messages with a master role and a slave role, characterized in that the field device controller implements the master role and the control device controller implements the slave role. wherein the field device comprises a field device controller and a field device transmitter, wherein the control device comprises a control device controller and a control device transmitter, wherein the field device transmitter and the control device transmitter have a transmission path between them, wherein the field device controller and the control device controller are adapted for bidirectional transmission of messages between one another according to a communication protocol via the field device transmitter, the transmission path and the control device transmitter, and wherein the communication protocol implements the transmission of messages with a master role and a slave role, characterized in that the field device controller implements the master role and the control device controller implements the slave role.
A method for selecting a face paper type for a wallboard, comprising: providing a core strength value of the wallboard; determining a required nail pull value based on a thickness of the wallboard type; calculating by a processor a face paper stiffness value based on said provided core strength value and said determined nail pull value; wherein said face paper stiffness value is based on the following equation: Nail Pull = a + b × face paper stiffness + c × core strength wherein a = 18.73892 N (4.2126759 lb f), b = 0,042216 N/(kN/m) (0.009490606731 lb f /(kN/m)) and c = 0,00005962 N/(N/m 2) (0.092421774 lb f /psi); the Nail Pull being expressed in N, the face paper stiffness being expressed in kN/m and the core strength being expressed in N/m 2; displaying said calculated face paper stiffness value on a display device; and selecting a face paper type for the wallboard based on said displayed face paper stiffness value. providing a core strength value of the wallboard; determining a required nail pull value based on a thickness of the wallboard type; calculating by a processor a face paper stiffness value based on said provided core strength value and said determined nail pull value; wherein said face paper stiffness value is based on the following equation: Nail Pull = a + b × face paper stiffness + c × core strength wherein a = 18.73892 N (4.2126759 lb f), b = 0,042216 N/(kN/m) (0.009490606731 lb f /(kN/m)) and c = 0,00005962 N/(N/m 2) (0.092421774 lb f /psi); the Nail Pull being expressed in N, the face paper stiffness being expressed in kN/m and the core strength being expressed in N/m 2; displaying said calculated face paper stiffness value on a display device; and selecting a face paper type for the wallboard based on said displayed face paper stiffness value.
A volume measurement system for a blood component separation device comprising: a fluid container including: a fluid container housing defining the structure of the fluid container; a plurality of fluid chambers (120B-E) within the fluid container housing and configured to collect and/or store fluid from the blood component separation device, each of the plurality of fluid chambers (120B-E) having a port (130B-E) configured to allow fluid to enter each of the fluid chambers (120B-E) from the blood component separation device and exit each of the fluid chambers (120B-E) to the blood component separation device, and wherein each of the fluid chambers (120B-E) is configured to fluidly connect to a fluid line on the blood component separation device via the port (130B-E); an imaging unit configured to take images of the plurality of fluid chambers (120B-E) and positioned to view a level of fluid in each of the plurality of fluid chambers (120B-E); and a controller in communication with the imaging unit and configured to determine a volume of fluid within each of the plurality of fluid chambers (120B-E) based upon the viewed level of fluid in each of the plurality of fluid chambers (120B-E). a fluid container including: a fluid container housing defining the structure of the fluid container; a plurality of fluid chambers (120B-E) within the fluid container housing and configured to collect and/or store fluid from the blood component separation device, each of the plurality of fluid chambers (120B-E) having a port (130B-E) configured to allow fluid to enter each of the fluid chambers (120B-E) from the blood component separation device and exit each of the fluid chambers (120B-E) to the blood component separation device, and wherein each of the fluid chambers (120B-E) is configured to fluidly connect to a fluid line on the blood component separation device via the port (130B-E); a fluid container housing defining the structure of the fluid container; a plurality of fluid chambers (120B-E) within the fluid container housing and configured to collect and/or store fluid from the blood component separation device, each of the plurality of fluid chambers (120B-E) having a port (130B-E) configured to allow fluid to enter each of the fluid chambers (120B-E) from the blood component separation device and exit each of the fluid chambers (120B-E) to the blood component separation device, and wherein each of the fluid chambers (120B-E) is configured to fluidly connect to a fluid line on the blood component separation device via the port (130B-E); an imaging unit configured to take images of the plurality of fluid chambers (120B-E) and positioned to view a level of fluid in each of the plurality of fluid chambers (120B-E); and a controller in communication with the imaging unit and configured to determine a volume of fluid within each of the plurality of fluid chambers (120B-E) based upon the viewed level of fluid in each of the plurality of fluid chambers (120B-E).
An automatic travel system for a work vehicle, comprising: an automatic travel control unit that causes the work vehicle to automatically travel, the work vehicle including an obstacle detection unit that detects obstacles, wherein the obstacle detection unit includes an imaging unit that image-captures a set range in a predetermined direction from the work vehicle, and an active sensor including a LiDAR sensor (86, 87) and/or a sonar that measures a set range in the same predetermined direction as the imaging unit from the work vehicle, and when the obstacle detection unit detects the obstacle from information of the imaging unit and acquires a separation distance from the obstacle from information of the active sensor (86, 87,88), the automatic travel control unit executes first collision avoidance control to avoid a collision between the work vehicle and the obstacle on the basis of the separation distance from the obstacle acquired from the information of the active sensor (86, 87, 88), and characterised in that when the obstacle detection unit detects an obstacle from the information of the imaging unit but cannot acquire the separation distance from the obstacle from the information of the active sensor (86, 87, 88), the automatic travel control unit executes second collision avoidance control which has a higher collision avoidance rate than the first collision avoidance control. an automatic travel control unit that causes the work vehicle to automatically travel, the work vehicle including an obstacle detection unit that detects obstacles, wherein the obstacle detection unit includes an imaging unit that image-captures a set range in a predetermined direction from the work vehicle, and an active sensor including a LiDAR sensor (86, 87) and/or a sonar that measures a set range in the same predetermined direction as the imaging unit from the work vehicle, and when the obstacle detection unit detects the obstacle from information of the imaging unit and acquires a separation distance from the obstacle from information of the active sensor (86, 87,88), the automatic travel control unit executes first collision avoidance control to avoid a collision between the work vehicle and the obstacle on the basis of the separation distance from the obstacle acquired from the information of the active sensor (86, 87, 88), and characterised in that when the obstacle detection unit detects an obstacle from the information of the imaging unit but cannot acquire the separation distance from the obstacle from the information of the active sensor (86, 87, 88), the automatic travel control unit executes second collision avoidance control which has a higher collision avoidance rate than the first collision avoidance control.
A sample holder attaching device configured to attach a sample holder adapted to hold a sample into a single-crystal X-ray structure analysis apparatus configured to perform a structure analysis of a material, the device comprising: a sample holder attaching mechanism adapted to attach the sample holder, said sample holder being attached to an attachable/detachable applicator, to a goniometer in the single-crystal X-ray structure analysis apparatus in a state where the sample holder is removed from the applicator; wherein the sample holder comprises a base part that is detachably attached to the tip portion of the goniometer and a holding part to which a porous complex crystal capable of soaking the sample in a plurality of fine pores formed therein can be attached, the holding part is formed on the base part, the applicator has a storing space for storing the sample holder, the sample holder attaching mechanism has a sample holder support section adapted to enable removal of the sample holder from the applicator and attachment of the sample holder to the goniometer, and the porous complex crystal is fixed at a position of the sample holder, where X-rays are irradiated from the X-ray irradiation section, in a state where the sample holder is attached to the goniometer. a sample holder attaching mechanism adapted to attach the sample holder, said sample holder being attached to an attachable/detachable applicator, to a goniometer in the single-crystal X-ray structure analysis apparatus in a state where the sample holder is removed from the applicator; wherein the sample holder comprises a base part that is detachably attached to the tip portion of the goniometer and a holding part to which a porous complex crystal capable of soaking the sample in a plurality of fine pores formed therein can be attached, the holding part is formed on the base part, the applicator has a storing space for storing the sample holder, the sample holder attaching mechanism has a sample holder support section adapted to enable removal of the sample holder from the applicator and attachment of the sample holder to the goniometer, and the porous complex crystal is fixed at a position of the sample holder, where X-rays are irradiated from the X-ray irradiation section, in a state where the sample holder is attached to the goniometer.