mhurhangee/patent-ind-claim-en huggingface dataset:
Method for updating a former bootloader portion of a firmware of an embedded device , said firmware comprising an array of data blocks and said firmware comprising said former bootloader portion stored in a bootloader storage area of the EEPROM memory of the embedded device in order to be executed at startup of the embedded device and a former main firmware portion stored in a main firmware storage area of the EEPROM memory, the method comprising the steps, executed by the embedded device, of: a) erasing data blocks of the main firmware storage area, b) loading in the erased main firmware storage area an update management program code at a location subsequent to the bootloader storage area and an updated bootloader portion at a location accessed during the execution of the update management program code, c) executing the former bootloader portion triggering an execution of said update management program code, this update management program code execution step comprising: - erasing data blocks of the bootloader storage area such that all the memory area preceding the update management program code is erased and storing at least a jump instruction at the beginning of said erased bootloader storage area, the execution of this jump instruction at startup branching the execution of the update management program code; - the writing of the updated bootloader portion in the erased bootloader storage area of the EEPROM memory; d) modifying the jump instruction so that the updated bootloader portion of the firmtware is executed at startup. a) erasing data blocks of the main firmware storage area, b) loading in the erased main firmware storage area an update management program code at a location subsequent to the bootloader storage area and an updated bootloader portion at a location accessed during the execution of the update management program code, c) executing the former bootloader portion triggering an execution of said update management program code, this update management program code execution step comprising: - erasing data blocks of the bootloader storage area such that all the memory area preceding the update management program code is erased and storing at least a jump instruction at the beginning of said erased bootloader storage area, the execution of this jump instruction at startup branching the execution of the update management program code; - the writing of the updated bootloader portion in the erased bootloader storage area of the EEPROM memory; - erasing data blocks of the bootloader storage area such that all the memory area preceding the update management program code is erased and storing at least a jump instruction at the beginning of said erased bootloader storage area, the execution of this jump instruction at startup branching the execution of the update management program code; - the writing of the updated bootloader portion in the erased bootloader storage area of the EEPROM memory; d) modifying the jump instruction so that the updated bootloader portion of the firmtware is executed at startup.
An endolysin specific for an oncogenic bacterium for use in the prevention, delay or treatment of cancer in a subject in need thereof.
A fence assembly for a table saw , the fence assembly comprising: a primary fence including a first elongated body having a first body first side , a first body second side , a first body top side , and a first body bottom side , a first height (H1) measured between the first body top side and the first body bottom side, and a secondary fence including a second elongated body having a second body top side and a second body bottom side , a second height (H2) measured between the second body top side and the second body bottom side, wherein the second height is less than the first height; and wherein the secondary fence is pivotally mounted to the primary fence and pivotable between a deployed position adjacent one of the first body first side or the first body second side, and a stowed position adjacent the other of the first body first side or the first body second side, characterised in that the primary fence comprises a threaded bore on each of the first body first side and the first body second side, and the secondary fence comprises a threaded shaft , the threaded shaft being selectively received by one of the threaded bores in the primary fence. a primary fence including a first elongated body having a first body first side , a first body second side , a first body top side , and a first body bottom side , a first height (H1) measured between the first body top side and the first body bottom side, and a secondary fence including a second elongated body having a second body top side and a second body bottom side , a second height (H2) measured between the second body top side and the second body bottom side, wherein the second height is less than the first height; and wherein the secondary fence is pivotally mounted to the primary fence and pivotable between a deployed position adjacent one of the first body first side or the first body second side, and a stowed position adjacent the other of the first body first side or the first body second side, characterised in that the primary fence comprises a threaded bore on each of the first body first side and the first body second side, and the secondary fence comprises a threaded shaft , the threaded shaft being selectively received by one of the threaded bores in the primary fence.
A microelectronic device comprising: - a substrate ; - a semiconductor layer comprising several first areas superposed on top of one another and forming an electrical conduction channel of the microelectronic device ; - an electrostatic control gate ; - a gate dielectric layer or a ferroelectric memory layer , such that parts of the gate dielectric layer or of the ferroelectric memory layer are each arranged between a part of the electrostatic control gate and one amongst the first areas of the semiconductor layer ; - dielectric spacers arranged against sidewalls of the electrostatic control gate ; - source / drain regions electrically coupled to the first areas of the semiconductor layer by second areas of the semiconductor layer , the second areas of the semiconductor layer extending between the source / drain regions and the dielectric spacers ; and wherein the second areas of the semiconductor layer form a continuous layer with the first areas , characterized in that the second areas are arranged directly against and in contact with the dielectric or ferroelectric memory layer . - a substrate ; - a semiconductor layer comprising several first areas superposed on top of one another and forming an electrical conduction channel of the microelectronic device ; - an electrostatic control gate ; - a gate dielectric layer or a ferroelectric memory layer , such that parts of the gate dielectric layer or of the ferroelectric memory layer are each arranged between a part of the electrostatic control gate and one amongst the first areas of the semiconductor layer ; - dielectric spacers arranged against sidewalls of the electrostatic control gate ; - source / drain regions electrically coupled to the first areas of the semiconductor layer by second areas of the semiconductor layer , the second areas of the semiconductor layer extending between the source / drain regions and the dielectric spacers ; and wherein the second areas of the semiconductor layer form a continuous layer with the first areas , characterized in that the second areas are arranged directly against and in contact with the dielectric or ferroelectric memory layer .
A device for placing thereon a steering wheel console and a pedal console of a race simulator game, comprising: • a frame ; • a steering wheel console support ; • a pedal console support ; and • a connection provision for connecting a chair ; characterized in that the frame comprises: • a base frame configured to be set up on the floor; and • a pivot frame connected with the base frame in a manner pivotable about a horizontal axis; wherein the steering wheel console support , the pedal console support and the connection provision for connecting a chair are directly connected with the pivot frame so that with a pivot movement of the pivot frame these parts together pivot along. • a frame ; • a steering wheel console support ; • a pedal console support ; and • a connection provision for connecting a chair ; • a base frame configured to be set up on the floor; and • a pivot frame connected with the base frame in a manner pivotable about a horizontal axis;
An isolated antibody that specifically binds to human CTLA-4, the antibody comprising a heavy chain variable region wherein the amino acid sequence of the heavy chain variable region consists of the amino acid sequence of SEQ ID NO: 8 and a light chain variable region wherein the amino acid sequence of the light chain variable region consists of the amino acid sequence of SEQ ID NO: 9; and wherein the antibody comprises a human IgG, heavy chain constant region, wherein the amino acid sequence of the human IgG, heavy chain constant region comprises S239D/A330L/I332E mutations, numbered according to the EU numbering system.
A computer-implemented method comprising: receiving , at one or more processing devices, a plurality of values representing a set of coefficients of an adaptive filter over a period of time; identifying , by the one or more processing devices based on the plurality of values, a phase error associated with a transfer function of the adaptive filter; determining an adjusted transfer function by adjusting , based on the identified phase error, a phase associated with the transfer function of the adaptive filter such that coefficients calculated using the adjusted transfer function reduce the phase error; determining a set of coefficients for the adaptive filter based on the adjusted transfer function; and programming the adaptive filter with the determined set of coefficients to enable operation of the adaptive filter. receiving , at one or more processing devices, a plurality of values representing a set of coefficients of an adaptive filter over a period of time; identifying , by the one or more processing devices based on the plurality of values, a phase error associated with a transfer function of the adaptive filter; determining an adjusted transfer function by adjusting , based on the identified phase error, a phase associated with the transfer function of the adaptive filter such that coefficients calculated using the adjusted transfer function reduce the phase error; determining a set of coefficients for the adaptive filter based on the adjusted transfer function; and programming the adaptive filter with the determined set of coefficients to enable operation of the adaptive filter.
- A method of forming a heated hose comprising: extruding a continuous web of plastics material of uniform width and of thin cross section from a first extruder of a hose making apparatus ; helically winding the extruded web about a mandrel or at least one rotating rod of the hose making apparatus to form a wall of the heated hose about a central axis of the heated hose ; feeding a first heating wire into a second extruder of the hose making apparatus ; extruding a first continuous bead of plastics material around the first heating wire from the second extruder of the hose making apparatus such that the first extruded bead comprises the first heating wire at a first location within a cross-section of the first extruded bead ; helically winding the first extruded bead onto and about an external surface of the wall of the hose formed from the helical winding of the extruded web to provide the wall a first support helix that incorporates the first heating wire ; and exerting tension on the first heating wire as the first heating wire is fed into the second extruder to draw down the first heating wire toward the central axis of the hose such that the first heating wire migrates radially inward within the first extruded bead from the first location within the cross-section of the first extruded bead to a second location within the cross-section that is closer to the wall of the hose and closer to the central axis than the first location. extruding a continuous web of plastics material of uniform width and of thin cross section from a first extruder of a hose making apparatus ; helically winding the extruded web about a mandrel or at least one rotating rod of the hose making apparatus to form a wall of the heated hose about a central axis of the heated hose ; feeding a first heating wire into a second extruder of the hose making apparatus ; extruding a first continuous bead of plastics material around the first heating wire from the second extruder of the hose making apparatus such that the first extruded bead comprises the first heating wire at a first location within a cross-section of the first extruded bead ; helically winding the first extruded bead onto and about an external surface of the wall of the hose formed from the helical winding of the extruded web to provide the wall a first support helix that incorporates the first heating wire ; and exerting tension on the first heating wire as the first heating wire is fed into the second extruder to draw down the first heating wire toward the central axis of the hose such that the first heating wire migrates radially inward within the first extruded bead from the first location within the cross-section of the first extruded bead to a second location within the cross-section that is closer to the wall of the hose and closer to the central axis than the first location.
An electronic device for determining a skin type of an object, the electronic device comprising: a camera ; a memory for storing one or more instructions; and a processor configured to execute the one or more instructions to: control the camera to capture at least one image comprising a skin portion and a non-skin portion of an object; and determine a characteristic vector comprising at least one color ratio between the skin portion and the non-skin portion according to a plurality of pre-set color elements; determine at least one skin attribute related to the object from the captured at least one image; and determine, by using the characteristic vector, a skin type representing a color ratio similar to the at least one color ratio in a skin type table corresponding to the determined at least one skin attribute, as a skin type of the object. a camera ; a memory for storing one or more instructions; and a processor configured to execute the one or more instructions to: control the camera to capture at least one image comprising a skin portion and a non-skin portion of an object; and determine a characteristic vector comprising at least one color ratio between the skin portion and the non-skin portion according to a plurality of pre-set color elements; determine at least one skin attribute related to the object from the captured at least one image; and determine, by using the characteristic vector, a skin type representing a color ratio similar to the at least one color ratio in a skin type table corresponding to the determined at least one skin attribute, as a skin type of the object. control the camera to capture at least one image comprising a skin portion and a non-skin portion of an object; and determine a characteristic vector comprising at least one color ratio between the skin portion and the non-skin portion according to a plurality of pre-set color elements; determine at least one skin attribute related to the object from the captured at least one image; and determine, by using the characteristic vector, a skin type representing a color ratio similar to the at least one color ratio in a skin type table corresponding to the determined at least one skin attribute, as a skin type of the object.
A device for extended retention in a human stomach, the device comprising: a. a first arm comprising a first end and a second opposing end, a second arm and a third arm , the second and third arms being pivotally connected to the first end and the second end of the first arm , respectively, b. wherein the device is configured to transform between a compressed configuration and an expanded configuration, c. the device further comprising a biasing member configured to bias the device into the expanded configuration, wherein, a portion of the second arm distal from the first arm and a portion of the third arm distal from the first arm are configured to mechanically engage each other to retain the device in the expanded configuration. a. a first arm comprising a first end and a second opposing end, a second arm and a third arm , the second and third arms being pivotally connected to the first end and the second end of the first arm , respectively, b. wherein the device is configured to transform between a compressed configuration and an expanded configuration, c. the device further comprising a biasing member configured to bias the device into the expanded configuration,
An assembly for a gas turbine engine , the assembly comprising: a stationary structure configured with a first side , a second side and a bore that extends through the stationary structure between the first side and the second side ; and a lubricant system comprising a fluid transfer tube wherein the fluid transfer tube extends within the bore and forms a plenum between a sidewall of the fluid transfer tube and the stationary structure , wherein the fluid transfer tube is configured with a first end at the first side , a second end at the second side , a flowpath and an aperture , the flowpath at least partially formed by the sidewall and extending through the fluid transfer tube between the first end and the second end , and the aperture fluidly coupling the flowpath with the plenum , characterised in that the plenum has an annular cross-sectional geometry. a stationary structure configured with a first side , a second side and a bore that extends through the stationary structure between the first side and the second side ; and a lubricant system comprising a fluid transfer tube wherein the fluid transfer tube extends within the bore and forms a plenum between a sidewall of the fluid transfer tube and the stationary structure , wherein the fluid transfer tube is configured with a first end at the first side , a second end at the second side , a flowpath and an aperture , the flowpath at least partially formed by the sidewall and extending through the fluid transfer tube between the first end and the second end , and the aperture fluidly coupling the flowpath with the plenum , characterised in that the plenum has an annular cross-sectional geometry.
A preparation method of a nickel-lithium metal composite oxide powder formed of a nickel-lithium metal composite oxide represented by Formula , in which lithium carbonate is used as a lithium source, D 0.001 indicating a cumulative percentage particle diameter showing the particle distribution is 0.8 μm to 3.0 μm, D 10 is 2.0 μm to 5.0 μm, D 50 is 2.0 μm to 6.5 μm, D 90 is 5.5 μm to 12.0 μm, and D 100 is 10.0 μm to 20.0 μm, the method comprising: the following Step 1 and/or Step 1' and Step 2. (Step 1) A step of mixing a hydroxide of a metal M and/or an oxide of a metal M and lithium carbonate, with a precursor including a nickel hydroxide and/or a nickel oxide and a cobalt hydroxide and/or a cobalt oxide to obtain a mixture. (Step 1') A step of mixing lithium carbonate, with a precursor including a nickel hydroxide and/or a nickel oxide, a cobalt hydroxide and/or a cobalt oxide, and a hydroxide of a metal M and/or an oxide of a metal M to obtain a mixture. (Step 2) A step of firing the mixture obtained in Step 1 and/or Step 1' at a temperature of at least 500 °C and lower than a melting point of lithium carbonate to obtain a fired product, whereby the firing time is from 3 to 40 hours. Li a Ni 1 - x - y Co x M y O b · · · In Formula , relationships of 0.90 < a < 1.10, 1.7 < b < 2.2, 0.01 < x < 0.15, and 0.005 < y < 0.10 are satisfied, M represents metals which include Al as an essential element and may include elements selected from Mn, W, Nb, Mg, Zr, and Zn.)
Position detection system comprising a first device with a localization element for connecting a medical instrument to the position detection system, a further device with a localization element and a control unit , wherein the medical instrument comprises an instrument shaft , an instrument tip , and a working point , wherein each localization element for determining location information of the respective device is arranged on the respective device within a coordinate system of the position detection system, wherein the first device comprises at least one holding means for fastening to the medical instrument and each locating element comprises a sensor coil for use in position sensing systems having an alternating electromagnetic field generated by a field generator and each device is connectable via a respective cable to the control unit of the position detection system in order to transmit signals from the localization elements to the control unit , wherein the further device has a reference point on the locating element, and the control unit is configured to calibrate the localization element of the first device via the reference point to the working point of the medical instrument for calibration, and to check - as a start condition for a calibration of the localization element of the first device to the instrument tip - whether the reference point is located within a position data space spanned by a search sector related to the localization element of the first device. wherein the medical instrument comprises an instrument shaft , an instrument tip , and a working point , wherein each localization element for determining location information of the respective device is arranged on the respective device within a coordinate system of the position detection system, wherein the first device comprises at least one holding means for fastening to the medical instrument and each locating element comprises a sensor coil for use in position sensing systems having an alternating electromagnetic field generated by a field generator and each device is connectable via a respective cable to the control unit of the position detection system in order to transmit signals from the localization elements to the control unit , wherein the further device has a reference point on the locating element, and the control unit is configured to calibrate the localization element of the first device via the reference point to the working point of the medical instrument for calibration, and to check - as a start condition for a calibration of the localization element of the first device to the instrument tip - whether the reference point is located within a position data space spanned by a search sector related to the localization element of the first device.