mhurhangee/ep-ind-claims huggingface dataset:
A firmware update method, comprising: receiving a firmware image at an electronic device, the electronic device having a processor and a memory arranged to store instructions executed by the processor; retrieving a unique device identifier; generating a random number; securely storing the generated random number in a secure element, the secure element separate from the memory arranged to store instructions executed by the processor; computationally combining the random number and a representation of the unique device identifier to create a device-binding value; generating an address-offset from the device-binding value; and storing the firmware image in a non-volatile way at a physical address in the memory based on the address-offset. receiving a firmware image at an electronic device, the electronic device having a processor and a memory arranged to store instructions executed by the processor; retrieving a unique device identifier; generating a random number; securely storing the generated random number in a secure element, the secure element separate from the memory arranged to store instructions executed by the processor; computationally combining the random number and a representation of the unique device identifier to create a device-binding value; generating an address-offset from the device-binding value; and storing the firmware image in a non-volatile way at a physical address in the memory based on the address-offset.
Apparatus for machining an end of an electrical cable, comprising a clamping apparatus for fixing the cable, a plurality of drivable brushes being provided which are arranged distributed along the periphery of the cable fixed by way of the clamping apparatus and are configured to brush a cable screen, exposed at least in the region of that end of the cable to be machined, straight in the direction of that end of the cable to be machined, the clamping apparatus being configured to fix the cable such that it cannot rotate during the brushing, and three brushes, four brushes, five brushes, six brushes, seven brushes or eight brushes being provided.
A call point having a chassis, a displaceable element movable between set and activated positions so as to trigger an alarm, a flag to provide a visual indication of such activation and a cover, characterised in that the displaceable element and flag are operatively associated with the cover, in that removal of the cover from the chassis results in activation of the call point and the provision of a visual indication thereof.
A mobile communications terminal (200, 510, 710) comprising a radio frequency interface and a controller and being arranged to operate with a position determining device, wherein said controller is configured to: detect a beacon; establish a connection with said beacon through said radio frequency interface; deactivate said position determining device; and retrieve a position to be used as a current position for the mobile communications terminal (200, 510, 710); thereby reducing a power consumption of the mobile communications terminal (200, 510, 710); characterized in that the controller is further configured to deactivate said radio frequency interface and intermittently activate and deactivate said radio frequency interface to determine whether the beacon (520, 720) is still within range. detect a beacon; establish a connection with said beacon through said radio frequency interface; deactivate said position determining device; and retrieve a position to be used as a current position for the mobile communications terminal (200, 510, 710); thereby reducing a power consumption of the mobile communications terminal (200, 510, 710); characterized in that the controller is further configured to deactivate said radio frequency interface and intermittently activate and deactivate said radio frequency interface to determine whether the beacon (520, 720) is still within range.
A circuitry package for a replaceable print component, comprising: integrated circuitry; an injection molded substrate (412a, 512) supporting the integrated circuitry; and molding remnants (522a-d) on the molded substrate (412a, 512), wherein the molding remnants (522a-d) are remnants of broken break tabs (414a, 414b) molded to hold the molded substrate before breaking, wherein the break tab (414a, 414b) is a structure that protrudes from the molded substrate (412a, 512). integrated circuitry; an injection molded substrate (412a, 512) supporting the integrated circuitry; and molding remnants (522a-d) on the molded substrate (412a, 512), wherein the molding remnants (522a-d) are remnants of broken break tabs (414a, 414b) molded to hold the molded substrate before breaking, wherein the break tab (414a, 414b) is a structure that protrudes from the molded substrate (412a, 512).
A process for forming components having a cavity with a longitudinal axis of extension using magnetic fields, comprising the steps of: - providing a device for forming components having a cavity, said device comprising a core extending along a central axis and having an outer lateral surface, said core being configured to be fitted into said cavity to carry out a forming operation on said component, said core being configured to be removed out of said cavity after said operation; - placing a metal component on the core; - carrying out an electromagnetic forming step on said component placed on the core, wherein the electromagnetic forming step comprises the sub step of pushing the component against the outer lateral surface using magnetic fields; - removing said core from said cavity; characterized in that: - said core comprises a plurality of segments (3a, 3b) in parallel arrangement, said segments (3a, 3b) being adapted to alternate between a machining configuration in which they are locked together to prepare said core to a machining operation and a removal configuration, in which they are mutually sliding to reduce the diameter of said core and remove it from said cavity; drive means for moving said segments (3a, 3b), which are configured to alternate them from the machining configuration to the extraction configuration; wherein the process comprises the additional steps of: - moving the segments (3a, 3b) into a machining configuration before placing the component on the core; - moving said segments (3a, 3b) from the machining configuration to the extraction configuration before removing said core from said cavity. - providing a device for forming components having a cavity, said device comprising a core extending along a central axis and having an outer lateral surface, said core being configured to be fitted into said cavity to carry out a forming operation on said component, said core being configured to be removed out of said cavity after said operation; - placing a metal component on the core; - carrying out an electromagnetic forming step on said component placed on the core, wherein the electromagnetic forming step comprises the sub step of pushing the component against the outer lateral surface using magnetic fields; - removing said core from said cavity; - said core comprises a plurality of segments (3a, 3b) in parallel arrangement, said segments (3a, 3b) being adapted to alternate between a machining configuration in which they are locked together to prepare said core to a machining operation and a removal configuration, in which they are mutually sliding to reduce the diameter of said core and remove it from said cavity; drive means for moving said segments (3a, 3b), which are configured to alternate them from the machining configuration to the extraction configuration; - moving the segments (3a, 3b) into a machining configuration before placing the component on the core; - moving said segments (3a, 3b) from the machining configuration to the extraction configuration before removing said core from said cavity.
A method for execution in a media processing device to establish media pathways in the media processing device having at least one software application (124, 322) and a plurality of selectable components for use in supporting media pathways, the method comprising: identifying a plurality of potential operational modes of the media processing device, each of the operational modes specifying for each of a plurality of pathway nodes a respective set of selectable components, each of the plurality of pathway nodes forming at least a portion of the media pathway (314, 316, 318); determining a certification requirement associated with the software application (124, 322); selecting one of the plurality of potential operational modes for use in media-related operations involving the software application (124, 322), wherein the selected operational mode is compliant with the certification requirement; selecting for each of the plurality of pathway nodes a selectable component in the respective set of selectable components in accordance with the selected operational mode to form at least a portion of a media pathway (314, 316, 318); and performing media-related operations utilizing the media pathway (314, 316, 318). identifying a plurality of potential operational modes of the media processing device, each of the operational modes specifying for each of a plurality of pathway nodes a respective set of selectable components, each of the plurality of pathway nodes forming at least a portion of the media pathway (314, 316, 318); determining a certification requirement associated with the software application (124, 322); selecting one of the plurality of potential operational modes for use in media-related operations involving the software application (124, 322), wherein the selected operational mode is compliant with the certification requirement; selecting for each of the plurality of pathway nodes a selectable component in the respective set of selectable components in accordance with the selected operational mode to form at least a portion of a media pathway (314, 316, 318); and performing media-related operations utilizing the media pathway (314, 316, 318).
An electronics connection system comprising: a substrate having an electronic component on a bottom side of said substrate, said electronic component having a first connector; a printed circuit board having a top side, a bottom side, at least one edge connecting said top side and said bottom side, and a cavity from said top side to said bottom side; a support frame to retain the substrate, wherein said substrate is mounted to said support frame and said support frame is secured on said PCB over said cavity, wherein when said support frame is mounted on said PCB and said first connector is fed through said cavity, a clearance gap is provided between the electronic component and a top of components on the PCB underneath the electronic component that is independent of a thickness of said first connector. a substrate having an electronic component on a bottom side of said substrate, said electronic component having a first connector; a printed circuit board having a top side, a bottom side, at least one edge connecting said top side and said bottom side, and a cavity from said top side to said bottom side; a support frame to retain the substrate, wherein said substrate is mounted to said support frame and said support frame is secured on said PCB over said cavity,
A portable computing device, comprising: a housing having an external surface and an inner surface; a heat-diffusion layer located within the housing; and a solid-state cooling mechanism with a first end coupled to the inner surface of the housing and a second end coupled to the heat-diffusion layer, wherein the solid-state cooling mechanism is configured to maintain a temperature difference, which is less than a pre-determined value, across at least a portion of the external surface by transporting heat away from the inner surface of the housing to the heat-diffusion layer. a housing having an external surface and an inner surface; a heat-diffusion layer located within the housing; and a solid-state cooling mechanism with a first end coupled to the inner surface of the housing and a second end coupled to the heat-diffusion layer, wherein the solid-state cooling mechanism is configured to maintain a temperature difference, which is less than a pre-determined value, across at least a portion of the external surface by transporting heat away from the inner surface of the housing to the heat-diffusion layer.
A device for the optical control of liquid drops or spurts which are intermittently dispensed from multichannel microdispensing devices, including: at least one light barrier unit assigned to each dosing channel of the microdispensing device, that is in each case arranged directly thereto on a common carrier, each consisting of: a light source having an inhomogeneous beam profile and a light sensor having a sensor surface onto which the profiled light beam of the light source projects, wherein the profiled light beam extends in each case transversely to the direction of propagation of the emitted liquid drops or spurts and is wider than the liquid drop or spurt to be controlled, characterised in that the light source and the light sensor are constructed and aligned in such a way that the profiled light beam is a cone-shaped light bundle with the highest intensity in the optical axis in the center of the light bundle, the intensity decreasing towards the edge of the light bundle, and in that the light sensor integrates the intensity of the incident light beam over its extent in the projection surface and its sensor current corresponds to the integrated beam intensity, so that the maximum shading of the light beam and reduction of the sensor current can occur when the liquid drop or spurt interrupts the light beam just in its optical axis. at least one light barrier unit assigned to each dosing channel of the microdispensing device, that is in each case arranged directly thereto on a common carrier, each consisting of: a light source having an inhomogeneous beam profile and a light sensor having a sensor surface onto which the profiled light beam of the light source projects, a light source having an inhomogeneous beam profile and a light sensor having a sensor surface onto which the profiled light beam of the light source projects, wherein the profiled light beam extends in each case transversely to the direction of propagation of the emitted liquid drops or spurts and is wider than the liquid drop or spurt to be controlled, characterised in that the light source and the light sensor are constructed and aligned in such a way that the profiled light beam is a cone-shaped light bundle with the highest intensity in the optical axis in the center of the light bundle, the intensity decreasing towards the edge of the light bundle, and in that the light sensor integrates the intensity of the incident light beam over its extent in the projection surface and its sensor current corresponds to the integrated beam intensity, so that the maximum shading of the light beam and reduction of the sensor current can occur when the liquid drop or spurt interrupts the light beam just in its optical axis.
A compound of formula: Where R 1 is H, or OCH 3, R 2 is H, and R 3 is H, OCH 3 or OR 6, where R 6 is a group of formula: and at least one of R 1 and R 3 is not H; n is 2; x is 1; y is 1; Q is O or N-R 9; R 9 is benzyl, R 7 and R 8 are both H; and R 12 is H; or a pharmaceutically acceptable salt thereof. R 1 is H, or OCH 3, R 2 is H, and R 3 is H, OCH 3 or OR 6, where R 6 is a group of formula: and at least one of R 1 and R 3 is not H; n is 2; x is 1; y is 1; Q is O or N-R 9; R 9 is benzyl, R 7 and R 8 are both H; and R 12 is H; or a pharmaceutically acceptable salt thereof.
A vehicle body frame structure for use in a saddle riding type vehicle, comprising: a head pipe; a single front frame attached to the head pipe to extend downward from the head pipe and positioned at a vertical plane passing through a center of the vehicle in the vehicle-widthwise direction; an upper left frame provided to the left of the center of the vehicle in the vehicle-widthwise direction and connected to the front frame to extend backward; an upper right frame provided to the right of the center of the vehicle in the vehicle-widthwise direction and connected to the front frame to extend backward; a lower left frame provided below the upper left frame and having a front end attached to the front frame and a rear end attached to a lower surface of the upper left frame; and a lower right frame provided below the upper right frame and having a front end attached to the front frame and a rear end attached to a lower surface of the upper right frame, characterized in that the front end of the upper left frame is directly attached to a left surface of the front frame and the front end of the upper right frame is directly attached to a right surface of the front frame. a head pipe; a single front frame attached to the head pipe to extend downward from the head pipe and positioned at a vertical plane passing through a center of the vehicle in the vehicle-widthwise direction; an upper left frame provided to the left of the center of the vehicle in the vehicle-widthwise direction and connected to the front frame to extend backward; an upper right frame provided to the right of the center of the vehicle in the vehicle-widthwise direction and connected to the front frame to extend backward; a lower left frame provided below the upper left frame and having a front end attached to the front frame and a rear end attached to a lower surface of the upper left frame; and a lower right frame provided below the upper right frame and having a front end attached to the front frame and a rear end attached to a lower surface of the upper right frame, characterized in that
Tilting pad bearing with a plurality of tilting pads (18, 20, 22) which are distributed over its circumference and are held at least indirectly on a bearing seat such that they can be pivoted about in each case one pivot axis (19, 21, 23), each tilting pad (18, 20, 22) being held on in each case one supporting element (26, 28, 30; 126, 128, 130) such that it can be pivoted about the respective pivot axis (19, 21, 23), and the respective supporting element (26, 28, 30; 126, 128, 130) being connected to the bearing seat via a connecting point (32; 132) only in its circumferential region which lies opposite the pivot axis (19, 21, 23) of the associated tilting pad (16, 18, 20), characterized in that the supporting elements (26, 28, 30; 126, 128, 130) are deformed in the case of heating in such a way that the radial spacing of the pivot axes (19, 21, 23) of the tilting pads (18, 20, 22) from the longitudinal axis of the tilting pad segment increases.
Arc fault detection unit for an electrical low-voltage circuit, having at least one voltage sensor assigned to the circuit, for periodically determining electrical voltage values (u m) of the circuit, at least one current sensor assigned to the circuit, for periodically determining electrical current magnitudes of the circuit, both of which are connected to an evaluation unit and which are embodied in such a way that value pairs of a voltage value (u m) and of a current magnitude are determined continuously at a point in time, so that in each case a first value pair of a voltage value (u 1) and of a current magnitude is present at a first point in time, and a second value pair of a voltage value (u 2) and of a current magnitude is present at a second point in time, characterized in that an arc voltage (U lb) of an ignited arc, which is compared to a threshold value, is calculated from the two value pairs and if said threshold value is exceeded in magnitude, an arc fault detection signal (SLES) is output. at least one voltage sensor assigned to the circuit, for periodically determining electrical voltage values (u m) of the circuit, at least one current sensor assigned to the circuit, for periodically determining electrical current magnitudes of the circuit, both of which are connected to an evaluation unit and which are embodied in such a way that value pairs of a voltage value (u m) and of a current magnitude are determined continuously at a point in time, so that in each case a first value pair of a voltage value (u 1) and of a current magnitude is present at a first point in time, and a second value pair of a voltage value (u 2) and of a current magnitude is present at a second point in time, characterized in that an arc voltage (U lb) of an ignited arc, which is compared to a threshold value, is calculated from the two value pairs and if said threshold value is exceeded in magnitude, an arc fault detection signal (SLES) is output.
A lamp assembly comprising: a plurality of light sources; a plurality of light guides optically connected to the plurality of light sources; a controller connected to the plurality of light sources, wherein the controller is configured to activate selected the plurality of light sources to emit light through the plurality of light guides; and one lens optically connected to the plurality of light guides, wherein the plurality of light guides have one or more low beam light guides, the one or more low beam light guides have one or more main low beam light guides, characterized in that, the one or more low beam light guides have one or more secondary low beam light guides adjacent to both sides of the one or more main low beam light guides, wherein a selected one of the secondary low beam light guides is activated when the lamp assembly is activated in a low beam mode, wherein the one or more secondary low beam light guides is narrower in width than the width of the one or more low beam light guides. a plurality of light sources; a plurality of light guides optically connected to the plurality of light sources; a controller connected to the plurality of light sources, wherein the controller is configured to activate selected the plurality of light sources to emit light through the plurality of light guides; and one lens optically connected to the plurality of light guides, wherein the plurality of light guides have one or more low beam light guides, the one or more low beam light guides have one or more main low beam light guides, characterized in that, the one or more low beam light guides have one or more secondary low beam light guides adjacent to both sides of the one or more main low beam light guides, wherein a selected one of the secondary low beam light guides is activated when the lamp assembly is activated in a low beam mode, wherein the one or more secondary low beam light guides is narrower in width than the width of the one or more low beam light guides.
A genetically engineered attenuated swine influenza virus having an altered interferon antagonist phenotype, wherein said virus comprises a swine influenza virus A/Swine/Texas/4199-2/98 NS1 gene with a mutation resulting in an NS1 protein with a deletion of all of the amino acid residues of NS1 except amino acid residues 1-126, wherein the amino terminal amino acid is number 1 and the mutation in the NS1 gene confers an altered interferon antagonist phenotype.