mhurhangee/ep-ind-claims huggingface dataset:
A solar cell comprising: a photoelectric conversion unit including a transparent conductive layer on a surface; a metal layer arranged on the transparent conductive layer; and an intermediate layer arranged between the metal layer and the transparent conductive layer and shaped in stripes each of which extends in a first direction, the intermediate layer having a smaller extinction coefficient than the metal layer; characterized in that the surface of the metal layer is formed in an uneven shape due to the stripe-shaped intermediate layer and linear electrodes are formed on the surface of the metal layer and extending in the first direction. a photoelectric conversion unit including a transparent conductive layer on a surface; a metal layer arranged on the transparent conductive layer; and an intermediate layer arranged between the metal layer and the transparent conductive layer and shaped in stripes each of which extends in a first direction, the intermediate layer having a smaller extinction coefficient than the metal layer; characterized in that the surface of the metal layer is formed in an uneven shape due to the stripe-shaped intermediate layer and linear electrodes are formed on the surface of the metal layer and extending in the first direction.
A door lock device comprising: a housing (14, 16); electric components (28a, 28b, 30a, 30b, 30c) housed in the housing (14, 16); first and second terminals (63a, 63b), each of which being electrically conductive and connected to the electric components (28a, 28b, 30a, 30b, 30c); a plate configured to hold the first terminal and the second terminal and having holes formed at positions corresponding to positions between the first terminal and the second terminal; bent pieces configured to protrude from the first terminal and being bent at edges of the holes; characterized in that the door lock device further comprises insulating pins configured to protrude from the housing, being positioned inside of the respective holes, and being interposed between the respective bent pieces and the second terminal. a housing (14, 16); electric components (28a, 28b, 30a, 30b, 30c) housed in the housing (14, 16); first and second terminals (63a, 63b), each of which being electrically conductive and connected to the electric components (28a, 28b, 30a, 30b, 30c); a plate configured to hold the first terminal and the second terminal and having holes formed at positions corresponding to positions between the first terminal and the second terminal; bent pieces configured to protrude from the first terminal and being bent at edges of the holes; characterized in that the door lock device further comprises insulating pins configured to protrude from the housing, being positioned inside of the respective holes, and being interposed between the respective bent pieces and the second terminal.
A system (100, 200) for generating a clock reference, comprising an input flip-flop (120, 220) including a clock input terminal configured to be coupled to a first clock, and a data input terminal configured to be coupled to a first reference signal, wherein the input flip-flop is configured to use the first clock to latch the reference signal to produce a latched reference signal; a counter (130, 230) coupled to the input flip-flop and configured to count pulses of the first clock starting upon detection of the latched reference signal and to output a second reference signal comprising a pulse for every L pulses of the first clock; and a clock tree (110, 210) configured to divide down the first clock to generate output clocks; wherein the clock tree is configured to be synchronized by a pulse of the second reference signal; and wherein the clock tree includes a cascaded series of clock dividers (102, 106); wherein each clock divider in the cascaded series of clock dividers includes a reference signal input configured to receive the second reference signal pulses from the counter, wherein the second reference signal pulses synchronize the clock dividers in the cascaded series of clock dividers, characterized in that the value of L is equal to a lowest common multiple of all the division factors of the cascaded series of clock dividers, or an integer multiple of the lowest common multiple factor. an input flip-flop (120, 220) including a clock input terminal configured to be coupled to a first clock, and a data input terminal configured to be coupled to a first reference signal, wherein the input flip-flop is configured to use the first clock to latch the reference signal to produce a latched reference signal; and a data input terminal configured to be coupled to a first reference signal, wherein the input flip-flop is configured to use the first clock to latch the reference signal to produce a latched reference signal; a counter (130, 230) coupled to the input flip-flop and configured to count pulses of the first clock starting upon detection of the latched reference signal and to output a second reference signal comprising a pulse for every L pulses of the first clock; and a clock tree (110, 210) configured to divide down the first clock to generate output clocks; wherein the clock tree is configured to be synchronized by a pulse of the second reference signal; and wherein the clock tree includes a cascaded series of clock dividers (102, 106); wherein each clock divider in the cascaded series of clock dividers includes a reference signal input configured to receive the second reference signal pulses from the counter, wherein the second reference signal pulses synchronize the clock dividers in the cascaded series of clock dividers,
A method of monitoring an implantation site of a patient of an implantable medical device (IMD, 6), the method comprising: determining, via a computing device, identification data for the patient; identifying, based at least in part on the identification data, IMD information that corresponds to the IMD; determining, based at least in part on the IMD information, an imaging program that defines one or more parameters for imaging the implantation site; initiating, by the computing device, an imaging device, the imaging device configured to capture, in accordance with the imaging program, one or more frames of image data; receiving, via the imaging device, at least one frame of the one or more frames, the at least one frame including an image of the implantation site; identifying, from the at least one frame of the image data, an abnormality at the implantation site; in response to identifying the abnormality, automatically triggering a supplemental image capture mode, wherein the imaging device, when operating in the supplemental image capture mode, is configured to capture one or more supplemental images of the implantation site; subsequent to triggering the supplemental image capture mode, receiving, by the computing device, the one or more supplemental images of the implantation site; and outputting, via the computing device, the one or more supplemental images of the implantation site. determining, via a computing device, identification data for the patient; identifying, based at least in part on the identification data, IMD information that corresponds to the IMD; determining, based at least in part on the IMD information, an imaging program that defines one or more parameters for imaging the implantation site; initiating, by the computing device, an imaging device, the imaging device configured to capture, in accordance with the imaging program, one or more frames of image data; receiving, via the imaging device, at least one frame of the one or more frames, the at least one frame including an image of the implantation site; identifying, from the at least one frame of the image data, an abnormality at the implantation site; in response to identifying the abnormality, automatically triggering a supplemental image capture mode, wherein the imaging device, when operating in the supplemental image capture mode, is configured to capture one or more supplemental images of the implantation site; subsequent to triggering the supplemental image capture mode, receiving, by the computing device, the one or more supplemental images of the implantation site; and outputting, via the computing device, the one or more supplemental images of the implantation site.
A processor-readable medium storing code representing instructions to be executed by a processor, the code comprising code to cause the processor to: receive an input string associated with a potentially malicious artifact; convert, at an embedding phase, each character in the input string into a vector of values to define a character matrix; select, at a feature extraction phase, a convolution matrix; apply, at the feature extraction phase, the convolution matrix to a first window of the character matrix to define a first subscore; apply, at the feature extraction phase, the convolution matrix to a second window of the character matrix to define a second subscore; combine the first subscore and the second subscore to define a score for the convolution matrix; provide, at a classification phase, the score for the convolution matrix as an input to a machine learning threat model; identify the potentially malicious artifact associated with the input string as malicious based on an output of the machine learning threat model; and perform a remedial action on the potentially malicious artifact based on identifying the potentially malicious artifact as malicious. receive an input string associated with a potentially malicious artifact; convert, at an embedding phase, each character in the input string into a vector of values to define a character matrix; select, at a feature extraction phase, a convolution matrix; apply, at the feature extraction phase, the convolution matrix to a first window of the character matrix to define a first subscore; apply, at the feature extraction phase, the convolution matrix to a second window of the character matrix to define a second subscore; combine the first subscore and the second subscore to define a score for the convolution matrix; provide, at a classification phase, the score for the convolution matrix as an input to a machine learning threat model; identify the potentially malicious artifact associated with the input string as malicious based on an output of the machine learning threat model; and perform a remedial action on the potentially malicious artifact based on identifying the potentially malicious artifact as malicious.
An alkaline battery, comprising: a negative electrode including zinc; a positive electrode including manganese dioxide; and an alkaline electrolyte; wherein the positive electrode includes graphite particles each having a basal surface and an edge surface, and anatase titanium dioxide particles, a height of the edge surface of each graphite particle is from 0.01 μm to 3 μm, and a mean particle size of the anatase titanium dioxide particles is larger than the height of the edge surface of each graphite particle. a negative electrode including zinc; a positive electrode including manganese dioxide; and an alkaline electrolyte; wherein the positive electrode includes graphite particles each having a basal surface and an edge surface, and anatase titanium dioxide particles, a height of the edge surface of each graphite particle is from 0.01 μm to 3 μm, and a mean particle size of the anatase titanium dioxide particles is larger than the height of the edge surface of each graphite particle.
Electronic device configured to check for correct installation of anchorages and "anti-rotation" points of child protection systems, the device comprising an electronic card comprising a microcontroller, acoustic signal means, visual signal means, at least one feeding battery, sensor means, said device being configured - to detect a condition of incorrect installation of the children protection system that occurs in case of relative displacement between an appendage, that controls the release of one of the anchor points, and one of said sensor means. - to activate said acoustic signal means and visual signal means. - to detect a condition of incorrect installation of the children protection system that occurs in case of relative displacement between an appendage, that controls the release of one of the anchor points, and one of said sensor means. - to activate said acoustic signal means and visual signal means.
An aerosol delivery device comprising: control circuitry for controlling an operating mode of the device; a motion sensor arranged to detect motion of the device and to output corresponding motion detection signals to the control circuitry; and an airflow sensor arranged to detect a flow of air in the device and to output corresponding airflow detection signals to the control circuitry; wherein the control circuitry is configured to determine from the motion detection signals when there is a tapping event corresponding to the device being tapped by a user and to determine from the airflow detection signals when there is an airflow event corresponding a flow of air in the device, and wherein the control circuitry is configured to control the device to switch from a first operating mode to a second operating mode in response to the detection of a predefined sequence of events comprising at least one tapping event and at least one airflow event within a predefined period of time. control circuitry for controlling an operating mode of the device; a motion sensor arranged to detect motion of the device and to output corresponding motion detection signals to the control circuitry; and an airflow sensor arranged to detect a flow of air in the device and to output corresponding airflow detection signals to the control circuitry; wherein the control circuitry is configured to determine from the motion detection signals when there is a tapping event corresponding to the device being tapped by a user and to determine from the airflow detection signals when there is an airflow event corresponding a flow of air in the device, and wherein the control circuitry is configured to control the device to switch from a first operating mode to a second operating mode in response to the detection of a predefined sequence of events comprising at least one tapping event and at least one airflow event within a predefined period of time.
Rotor blade for a wind turbine, with a trailing edge comprising a trailing edge core having several core elements arranged side by side, seen from root to tip, and with an inner and an outer laminate, whereby one core element is split into two element parts (8a, 8b) separated by a slit, whereby, seen in the direction from a blade root to a blade tip, the inner laminate runs into and through the slit and becomes the outer laminate.
A method for the manufacture of a component of defined geometry from two or more materials using a powder bed ALM process, the method comprising; providing a bed of a first powdered material, selectively fusing portions of the first powdered material to build up a first three dimensional portion of the component geometry, characterized by fusing a powder containment bund (23, 24) from the first material whereby to contain unfused first powdered material, providing a bed of a second powdered material onto the powder containment bund and selectively fusing portions of the second powdered material to build up a second three dimensional portion of the component geometry, removing unfused first powdered material from a first side of the containment bund (23, 24) and removing unfused second powder from a second side of the containment bund, and subsequently removing parts of the containment bund which do not form part of the defined geometry of the component (22,32).
An inceptor apparatus for operating a machine and having multiple modes of operation, the operation of the machine providing, an output from at least one inertial sensor (52, 54) associated with the machine indicative of inertial forces detected during operation of the machine, the inceptor apparatus comprising: a stick member having a base portion (14, 18, 20), and a grip portion extending from the base portion in only one direction; at least one sensor (70, 72) for generating data indicative of an actual stick member position; and a control unit configured to receive the output indicative of detected inertial forces and to receive the actual stick member position data, characterized in that the control unit is operable in all modes of operation to generate a stick member position compensation signal in dependence upon the actual stick member position data and the output indicative of detected inertial forces thereby to compensate for inertial force acting upon the stick member due to the inertial forces detected during operation of the machine. a stick member having a base portion (14, 18, 20), and a grip portion extending from the base portion in only one direction; at least one sensor (70, 72) for generating data indicative of an actual stick member position; and a control unit configured to receive the output indicative of detected inertial forces and to receive the actual stick member position data, characterized in that the control unit is operable in all modes of operation to generate a stick member position compensation signal in dependence upon the actual stick member position data and the output indicative of detected inertial forces thereby to compensate for inertial force acting upon the stick member due to the inertial forces detected during operation of the machine.
A polynucleotide comprising a transposon comprising inverted terminal repeats of a piggyBac-like transposon flanking a heterologous polynucleotide not naturally flanked by the inverted terminal repeats, the inverted repeats being flanked on their outer sides by copies of a target sequence, wherein the transposon is capable of transposition by a transposase identical to SEQ ID NO: 45 fused to a heterologous nuclear localization signal wherein SEQ ID NO:124 provides the sequence of each inverted terminal repeat, the sequence being in inverted orientations in the two transposon ends.
Transparent pane having at least one electrically heatable coating, which is connected to at least two collecting electrodes (11, 11"') provided for the electrical connection to the two poles of a voltage source such that, by applying a supply voltage, a heating current flows via a heating field formed between the two collecting electrodes (11,11"'), wherein the heating field contains at least one coating-free zone, which is bordered by a zone edge of the coating-free zone, which zone edge is formed, at least in sections, by the heatable coating, wherein - at least one of the two collecting electrodes (11, 11"') is subdivided into at least two subregions (11', 11") separated from one another, - at least one electrical supply line (16, 16') is guided from each of the at least two subregions (11', 11") to at least one additional electrode, wherein - the at least two electrical supply lines (16, 16') respectively run at least in sections - in the coating-free edge strip and/or - in at least one subregion (8', 8") of the coating outside the heating field, and wherein - the at least one additional electrode is electrically connected to the ends of the at least two electrical supply lines (16, 16') and to the heating field section of the heating field between the collecting electrodes (11,11"'), and/or - the at least one additional electrode is subdivided into at least two subregions (15', 15") separated from one another, wherein each of the at least two subregions (15', 15") is electrically connected to, in each case, one end of at least one electrical supply line (16, 16') as well as to the heating field section of the heating field between the collecting electrodes (11, 11"'), characterized in that each of the two subregions (11', 11") is contacted by the electrical supply line (16, 16') at a side of the collecting electrodes (11, 11'") facing away from the heating field. - at least one of the two collecting electrodes (11, 11"') is subdivided into at least two subregions (11', 11") separated from one another, - at least one electrical supply line (16, 16') is guided from each of the at least two subregions (11', 11") to at least one additional electrode, wherein - the at least two electrical supply lines (16, 16') respectively run at least in sections - in the coating-free edge strip and/or - in at least one subregion (8', 8") of the coating outside the heating field, and wherein - in the coating-free edge strip and/or - in at least one subregion (8', 8") of the coating outside the heating field, and wherein - the at least one additional electrode is electrically connected to the ends of the at least two electrical supply lines (16, 16') and to the heating field section of the heating field between the collecting electrodes (11,11"'), and/or - the at least one additional electrode is subdivided into at least two subregions (15', 15") separated from one another, wherein each of the at least two subregions (15', 15") is electrically connected to, in each case, one end of at least one electrical supply line (16, 16') as well as to the heating field section of the heating field between the collecting electrodes (11, 11"'),
Application device for applying a coating agent which can be cured by radiation onto a surface to be coated, with a) an application unit for emitting the coating agent; and b) at least one radiation emission portion (10; 20; 20A-20E; 30, 30A-30D; 40) for emitting the radiation, which is provided such that the coating agent comes into contact with the radiation before hitting the surface to be coated; characterized in that c) the radiation emission portion comprises at least one radiation conductor (20A-20E; 42) which protrudes into a portion through which coating agent will flow, in order to irradiate the coating agent; and/or d) the radiation emission portion comprises a mixer for surface area enlargement and/or mixing of the coating agent, which is arranged in a portion through which coating agent will flow, in order to emit radiation to the coating agent. a) an application unit for emitting the coating agent; and b) at least one radiation emission portion (10; 20; 20A-20E; 30, 30A-30D; 40) for emitting the radiation, which is provided such that the coating agent comes into contact with the radiation before hitting the surface to be coated; characterized in that c) the radiation emission portion comprises at least one radiation conductor (20A-20E; 42) which protrudes into a portion through which coating agent will flow, in order to irradiate the coating agent; and/or d) the radiation emission portion comprises a mixer for surface area enlargement and/or mixing of the coating agent, which is arranged in a portion through which coating agent will flow, in order to emit radiation to the coating agent.