mhurhangee/ep-ind-claims huggingface dataset:
A case or cover for an electronic device comprising: a sidewall comprising: a first rigid portion and a second rigid portion formed by a rigid substrate; an opening between said rigid portions; and a bridge support structure formed around the opening; characterized in that the bridge support structure comprises: a flange that frames the opening, the flange being connected or formed with the substrate; wherein the flange comprises: a first portion adjacent to a first groove; a second portion adjacent to a second groove; and a bridge portion that connects the first portion with the second portion; wherein the first groove is located between the first portion of the flange and the first rigid portion of the sidewall and the second groove is located between the second portion of the flange and the second rigid portion of the sidewall and each groove includes a shaped bottom so that the first and second portions of the flange can flex independently of the first and second rigid portions of the sidewall so as to reduce stress on the bridge portion. a sidewall comprising: a first rigid portion and a second rigid portion formed by a rigid substrate; an opening between said rigid portions; and a bridge support structure formed around the opening; a first rigid portion and a second rigid portion formed by a rigid substrate; an opening between said rigid portions; and a bridge support structure formed around the opening; characterized in that the bridge support structure comprises: a flange that frames the opening, the flange being connected or formed with the substrate; wherein the flange comprises: a first portion adjacent to a first groove; a second portion adjacent to a second groove; and a bridge portion that connects the first portion with the second portion; a first portion adjacent to a first groove; a second portion adjacent to a second groove; and a bridge portion that connects the first portion with the second portion; wherein the first groove is located between the first portion of the flange and the first rigid portion of the sidewall and the second groove is located between the second portion of the flange and the second rigid portion of the sidewall and each groove includes a shaped bottom so that the first and second portions of the flange can flex independently of the first and second rigid portions of the sidewall so as to reduce stress on the bridge portion.
A porous metal body, which is a sheet-shaped porous metal body, comprising at least nickel, tin, and chromium, wherein the chromium concentration of at least one surface of the porous metal body is 3% to 50% by mass, and wherein the chromium concentration of one surface is higher than the chromium concentration of another surface.
A seed mixture having rapeseeds, seeds of at least one sacrificial and one denaturing plant from the cabbage family being added as pest control for protecting against insects and slugs, the seeds of the sacrificial and denaturing plant being added in a quantity of 0.1 to 15 wt% of the entire seed mixture, and the seed mixture, in addition to the rapeseed, - also has seeds of turnip rape and oil radish added as sacrificial plants, and - also has mustard seeds added as a denaturing plant. - also has seeds of turnip rape and oil radish added as sacrificial plants, and - also has mustard seeds added as a denaturing plant.
A system for applying energy through an interconnecting cable, ICC, to an energy delivery device including an antenna for delivering microwave energy to tissue, the system comprising: a source of energy; a memory unit configured to store at least one target energy dose; a user interface, where the user interface is configured to increase or decrease the at least one target energy dose comprising a maximum target energy dose and a minimum target energy dose; and a controller configured to apply an applied energy dose to the energy delivery device from the source of energy, characterized in that the controller is configured to calculate an energy loss during energy delivery comprising returned power measured at the antenna as a fraction of the power reflected back to the antenna from tissue to the total forward power from the antenna to tissue, wherein returned power measurements include measurements of returned power magnitude, phase and/or ratio of the returned power to the incident power, where the controller is further configured to determine an amount of delivered energy using the energy loss and to compare the amount of delivered energy to the at least one target energy dose to provide a signal when the applied energy dose reaches the at least one target energy dose, wherein the controller is further configured to stop energy delivery when the delivered energy dose is greater than the minimum target energy dose and the returned power is greater than a desired returned power. a source of energy; a memory unit configured to store at least one target energy dose; a user interface, where the user interface is configured to increase or decrease the at least one target energy dose comprising a maximum target energy dose and a minimum target energy dose; and a controller configured to apply an applied energy dose to the energy delivery device from the source of energy, characterized in that the controller is configured to calculate an energy loss during energy delivery comprising returned power measured at the antenna as a fraction of the power reflected back to the antenna from tissue to the total forward power from the antenna to tissue, wherein returned power measurements include measurements of returned power magnitude, phase and/or ratio of the returned power to the incident power, where the controller is further configured to determine an amount of delivered energy using the energy loss and to compare the amount of delivered energy to the at least one target energy dose to provide a signal when the applied energy dose reaches the at least one target energy dose, wherein the controller is further configured to stop energy delivery when the delivered energy dose is greater than the minimum target energy dose and the returned power is greater than a desired returned power.
A method of treating a hydrocarbon containing formation, comprising the following steps: a) preparing an internal olefin sulfonate, comprising sulfonating an internal olefin into sulfonated internal olefin followed by contacting sulfonated internal olefin with a base containing solution resulting in the internal olefin sulfonate, wherein sulfonated internal olefin is contacted with the base containing solution in the presence of a non-ionic surfactant; b) transporting an aqueous solution comprising the internal olefin sulfonate and the non-ionic surfactant to the location of the hydrocarbon containing formation; c) providing the internal olefin sulfonate and the non-ionic surfactant to at least a portion of the hydrocarbon containing formation; and d) allowing the internal olefin sulfonate and the non-ionic surfactant to interact with the hydrocarbons in the hydrocarbon containing formation. a) preparing an internal olefin sulfonate, comprising sulfonating an internal olefin into sulfonated internal olefin followed by contacting sulfonated internal olefin with a base containing solution resulting in the internal olefin sulfonate, wherein sulfonated internal olefin is contacted with the base containing solution in the presence of a non-ionic surfactant; b) transporting an aqueous solution comprising the internal olefin sulfonate and the non-ionic surfactant to the location of the hydrocarbon containing formation; c) providing the internal olefin sulfonate and the non-ionic surfactant to at least a portion of the hydrocarbon containing formation; and d) allowing the internal olefin sulfonate and the non-ionic surfactant to interact with the hydrocarbons in the hydrocarbon containing formation.
An electronic device, comprising a thin film camera, wherein the thin film camera comprises: an image processor arranged in the electronic device; and a film structure disposed to an outer surface of the electronic device, the film structure being configured to capture an image, the image processor being in communication with the film structure, wherein the film structure comprises a photosensitive array and is configured to capture the image via processing incident lights by the photosensitive array, characterized in that the photosensitive array is formed by quantum films, wherein at least a part of the image processor is arranged to a mainboard of the electronic device; the at least part of the image processor is inserted in the mainboard of the electronic device, and the thin film camera has an outer surface which is flush with the outer surface of the electronic device; the outer surface of the electronic device has a groove, and the film structure is arranged in the groove and has an outer surface which is flush with the outer surface of the electronic device. an image processor arranged in the electronic device; and a film structure disposed to an outer surface of the electronic device, the film structure being configured to capture an image, the image processor being in communication with the film structure, wherein the film structure comprises a photosensitive array and is configured to capture the image via processing incident lights by the photosensitive array, characterized in that the photosensitive array is formed by quantum films, wherein at least a part of the image processor is arranged to a mainboard of the electronic device; the at least part of the image processor is inserted in the mainboard of the electronic device, and the thin film camera has an outer surface which is flush with the outer surface of the electronic device; the outer surface of the electronic device has a groove, and the film structure is arranged in the groove and has an outer surface which is flush with the outer surface of the electronic device.
A magnetic wheel comprising: a balance block which includes a circular block body and a first frame portion which has a larger diameter than the circular block body; a magnetic body which is provided in the circular block body of the balance block and attaches the balance block to an attachment object with a magnetic force; and a magnetic shielding block which is provided in the balance block and guides a magnetic field generated in the magnetic body toward the attachment object, a bearing provided in the circular block body to rotatably support a support shaft passing through the circular block body, a support shaft fixing member is provided to fix the support shaft to the frame portion by being screwed to a screw thread formed in the hole formed in the frame portion, wherein the magnetic shielding block shields all regions except the bottom of the magnetic body directing to the attachment object, characterized in that the balance block includes a second frame portion, and the first and second frame portions are provided at edges of the circular block body spaced in the axial direction of the support shaft. a balance block which includes a circular block body and a first frame portion which has a larger diameter than the circular block body; a magnetic body which is provided in the circular block body of the balance block and attaches the balance block to an attachment object with a magnetic force; and a magnetic shielding block which is provided in the balance block and guides a magnetic field generated in the magnetic body toward the attachment object, a bearing provided in the circular block body to rotatably support a support shaft passing through the circular block body, a support shaft fixing member is provided to fix the support shaft to the frame portion by being screwed to a screw thread formed in the hole formed in the frame portion, wherein the magnetic shielding block shields all regions except the bottom of the magnetic body directing to the attachment object, characterized in that the balance block includes a second frame portion, and the first and second frame portions are provided at edges of the circular block body spaced in the axial direction of the support shaft.
Method for adapting a transfer function of an active suspension of a vehicle, wherein - the vehicle drives along a section of road for which a surface profile is stored in a control unit of the vehicle, - the active suspension is activated by the control unit according to a predetermined transfer function for adaptation to the surface profile by means of adjustment values in order to compensate for unevennesses of the surface profile, and - a shock absorber sensor system and/or a tire sensor system of the vehicle is used to record vertical accelerations while driving along the section of road and transfer them to the control unit, characterized in that the adjustment values and the recorded vertical accelerations are transferred by the vehicle to an external central computer. - the vehicle drives along a section of road for which a surface profile is stored in a control unit of the vehicle, - the active suspension is activated by the control unit according to a predetermined transfer function for adaptation to the surface profile by means of adjustment values in order to compensate for unevennesses of the surface profile, and - a shock absorber sensor system and/or a tire sensor system of the vehicle is used to record vertical accelerations while driving along the section of road and transfer them to the control unit,
A method for reducing the phytotoxicity of prothioconazole, the method comprising employing the prothioconazole in combination with azoxystrobin, wherein azoxystrobin and prothioconazole are employed in a weight ratio of greater than 1:1.
A method for shifting multi-speed transmissions (110a-110c) of marine propulsion devices (101a-101c), each of the marine propulsion devices (101a-101c) having a powerhead (102a-102c) and a shift schedule for shifting between a first gear and a second gear of the multi-speed transmission (110a-110c) corresponding thereto to transmit torque from the powerhead (102a-102c), the method comprising: configuring the multi-speed transmission (110a-110c) of a leader among the marine propulsion devices (101a-101c) to shift when a shift schedule of the leader indicates a shift recommendation; configuring the multi-speed transmission (110a-110c) of a follower among the marine propulsion devices (101a-101c) to shift when a shift schedule of the follower indicates a shift recommendation; receiving a request to shift the multi-speed transmission (110a-110c) of the leader when the shift schedule of the leader indicates the shift recommendation; determining whether conditions are met for the follower to follow the leader in shifting; and automatically requesting, when conditions are determined to be met for the follower to follow the leader, to shift the multi-speed transmission (110a-110c) of the follower so as to be coordinated with shifting the multi-speed transmission (110a-110c) of the leader, wherein the shift schedule of the follower indicates a non-shift recommendation when the multi-speed transmission (110a-110c) of the follower is automatically requested to shift. configuring the multi-speed transmission (110a-110c) of a leader among the marine propulsion devices (101a-101c) to shift when a shift schedule of the leader indicates a shift recommendation; configuring the multi-speed transmission (110a-110c) of a follower among the marine propulsion devices (101a-101c) to shift when a shift schedule of the follower indicates a shift recommendation; receiving a request to shift the multi-speed transmission (110a-110c) of the leader when the shift schedule of the leader indicates the shift recommendation; determining whether conditions are met for the follower to follow the leader in shifting; and automatically requesting, when conditions are determined to be met for the follower to follow the leader, to shift the multi-speed transmission (110a-110c) of the follower so as to be coordinated with shifting the multi-speed transmission (110a-110c) of the leader, wherein the shift schedule of the follower indicates a non-shift recommendation when the multi-speed transmission (110a-110c) of the follower is automatically requested to shift.
A signal selection and fault detection system comprising: four input equalization circuits (202, 204, 206, 208) each configured to: receive an input signal from a respective sensor for a particular frame, wherein the input signal is indicative of a same parameter measured by the respective sensor; and output an equalized signal based on the received input signal; and a five-input output selection circuit coupled to said four input equalization circuits (202, 204, 206, 208) and configured to: receive an equalized signal from each of said four input equalization circuits (202, 204, 206, 208), said five-input output selection circuit configured to: receive a previous frame output signal, output by the five-input output selection circuit and transmitted back to the five-input output selection circuit through a delay circuit, and select a median signal of the four equalized signals and the previous frame output signal as the output signal of the five-input output selection circuit. four input equalization circuits (202, 204, 206, 208) each configured to: receive an input signal from a respective sensor for a particular frame, wherein the input signal is indicative of a same parameter measured by the respective sensor; and output an equalized signal based on the received input signal; and receive an input signal from a respective sensor for a particular frame, wherein the input signal is indicative of a same parameter measured by the respective sensor; and output an equalized signal based on the received input signal; and a five-input output selection circuit coupled to said four input equalization circuits (202, 204, 206, 208) and configured to: receive an equalized signal from each of said four input equalization circuits (202, 204, 206, 208), said five-input output selection circuit configured to: receive a previous frame output signal, output by the five-input output selection circuit and transmitted back to the five-input output selection circuit through a delay circuit, and select a median signal of the four receive an equalized signal from each of said four input equalization circuits (202, 204, 206, 208), said five-input output selection circuit configured to: receive a previous frame output signal, output by the five-input output selection circuit and transmitted back to the five-input output selection circuit through a delay circuit, and select a median signal of the four equalized signals and the previous frame output signal as the output signal of the five-input output selection circuit.
Electrical actuator system for articles of furniture, especially for hospital and care beds and treatment tables, and comprising a number of actuators (6,7;10,11) for bringing about the adjustment of the piece of furniture, a control box connected to the actuator(s) with a mains-based power supply and typically also a rechargeable battery package and at least a part of the control unit, a number of controls (15,16) with a number of control buttons, an orientation lighting for mounting on the piece of furniture, characterized in that the system comprises at least one junction box (13,14) connected to the control box and in that the orientation lighting is located in the at least one junction box (13,14) with a separate control unit.
Trolley, in particular for the transport of plants and/or flowers standing in containers, cut flowers or the like, wherein the trolley comprises rollers on the under side and at least one, preferably rectangular, transport surface and preferably at least two, preferably rectangular, transport surfaces arranged at a vertical distance interval above one another, and wherein the trolley comprises at least two preferably vertical rods, arranged at a distance interval from one another, which project on the upper side over the topmost transport surface, wherein the trolley comprises at least one advertising display surface, which is secured to the trolley by means of at least one device in such a way that the advertising display surface can be moved out of a parking position, preferably aligned horizontally, into a vertical reading position and can be fixed in the reading position, and at least one device comprises a hinge, forming a pivot axis about which the advertising display surface can be pivoted between its reading position and its parking position, characterised in that at least one device comprises a tubular section, configured in the form of a sleeve, for placing onto the free upper end of a rod, as well as a holding section connected to the tubular section such as to be able to pivot by means of the hinge.
An image processing system comprising: input means for inputting commands representing an object; bitmap data generation means for generating bitmap data on the basis of the commands; characterised by further comprising: An edge detector for detecting edges in the generated bitmap data; signal generation means for generating an object type signal on the basis of both of an attribute of the object, and the detected edges of the bitmap data; and a smoothing circuit for processing the generated bitmap data in accordance with the type of object indicated by the object type signal. input means for inputting commands representing an object; bitmap data generation means for generating bitmap data on the basis of the commands; characterised by further comprising: An edge detector for detecting edges in the generated bitmap data; signal generation means for generating an object type signal on the basis of both of an attribute of the object, and the detected edges of the bitmap data; and a smoothing circuit for processing the generated bitmap data in accordance with the type of object indicated by the object type signal. An edge detector for detecting edges in the generated bitmap data; signal generation means for generating an object type signal on the basis of both of an attribute of the object, and the detected edges of the bitmap data; and a smoothing circuit for processing the generated bitmap data in accordance with the type of object indicated by the object type signal.
A method of regulating fuel flow to a gas turbine engine, the method is characterised by comprising: governing power for the engine using a control structure having an inner control loop and an outer control loop, the outer control loop comprising a feedback controller that outputs a feedback command based on a power error determined as a function of a shaft horsepower, the feedback command used to determine a gas generator speed error, the gas generator speed error used by the inner control loop for outputting a fuel flow command; determining the shaft horsepower from a torque measurement of the engine using a torque pressure transducer; detecting a momentary loss of the torque measurement from the torque pressure transducer; and limiting power fluctuations due to the loss of torque measurement by maintaining the feedback command from the feedback controller constant during the momentary loss of torque measurement. governing power for the engine using a control structure having an inner control loop and an outer control loop, the outer control loop comprising a feedback controller that outputs a feedback command based on a power error determined as a function of a shaft horsepower, the feedback command used to determine a gas generator speed error, the gas generator speed error used by the inner control loop for outputting a fuel flow command; determining the shaft horsepower from a torque measurement of the engine using a torque pressure transducer; detecting a momentary loss of the torque measurement from the torque pressure transducer; and limiting power fluctuations due to the loss of torque measurement by maintaining the feedback command from the feedback controller constant during the momentary loss of torque measurement.