mhurhangee/patent-ind-claim-en huggingface dataset:
An information generation method performed by an information generation device that generates learning data for a learning model that infers whether a mobile object is movable in a predetermined region, the information generation method comprising: obtaining at least (i) first information and (ii) second information when the mobile object moves in a first region, the first information being obtained from a sensor provided in the mobile object , the second information relating to movement of the mobile object ; inferring whether the mobile object is movable in the first region according to the second information; and generating fourth information for the learning model, the fourth information associating the first information, the second information, and third information with one another, the third information indicating an inference result which is obtained in the inferring. characterized in that the method further comprises: estimating a difficulty of movement of the mobile object , wherein the generating includes generating the fourth information which associates the first information, the second information, fifth information, and the third information with one another, the fifth information indicating an estimation result of the difficulty obtained in the estimating, and wherein the generating is performed only when the third information and the fifth information satisfy a predetermined condition. obtaining at least (i) first information and (ii) second information when the mobile object moves in a first region, the first information being obtained from a sensor provided in the mobile object , the second information relating to movement of the mobile object ; inferring whether the mobile object is movable in the first region according to the second information; and generating fourth information for the learning model, the fourth information associating the first information, the second information, and third information with one another, the third information indicating an inference result which is obtained in the inferring. characterized in that the method further comprises: estimating a difficulty of movement of the mobile object , wherein the generating includes generating the fourth information which associates the first information, the second information, fifth information, and the third information with one another, the fifth information indicating an estimation result of the difficulty obtained in the estimating, and wherein the generating is performed only when the third information and the fifth information satisfy a predetermined condition. estimating a difficulty of movement of the mobile object , wherein the generating includes generating the fourth information which associates the first information, the second information, fifth information, and the third information with one another, the fifth information indicating an estimation result of the difficulty obtained in the estimating, and wherein the generating is performed only when the third information and the fifth information satisfy a predetermined condition.
A phosphorescent organic electroluminescence device, including a hole transport layer, a luminescent layer and an electron transport layer, which are successively laminated, wherein the luminescent layer has a double-layer structure comprising a hole transport material layer and an electron transport material layer, defining an interface between the hole transport material layer and the electron transport material layer, and an exciplex is formed on the interface of the hole transport material layer and the electron transport material layer, the exciplex is a TADF exciplex having a thermally activated delayed fluorescence effect; and the hole transport material layer consists of a host material having hole transport capability, the electron transport material layer consists of a host material and a phosphorescent dye doped in the host material, the host material having electron transport capability; wherein the hole transport material layer is arranged between the hole transport layer and the electron transport material layer, the electron transport material layer is arranged between the hole transport material layer and the electron transport layer wherein, the first triplet state energy level of the material having electron transport capability is higher than the singlet state energy level of the exciplex, with an energy gap between the first triplet of the material having electron transport capability and the first singlet state energy level of the exciplex being more than or equal to 0.2 eV; and the absolute value of HOMO energy level of the material having hole transport capability is less than or equal to 5.3 eV; the first triplet state energy level of the material having electron transport capability is higher than the first singlet state energy level of the exciplex, with an energy gap between the material having electron transport capability and the exciplex being more than 0.2 eV; and the absolute value of LUMO energy level of the material having electron transport capability is more than 2.0 eV; the difference in LUMO energy level between the material having hole transport capability and the material having electron transport capability is more than 0.3 eV, and the difference in HOMO energy level between the material having hole transport capability and the material having electron transport capability is more than 0.2 eV; wherein, the material having electron transport capability is one or more of compounds of the structural formulae (1-1) to (1-8): Formula (1-8); wherein, the material having hole transport capability is one or more of compounds of the structural formulae (2-1) to (2-7): the first singlet state energy level of the exciplex is higher than the first triplet state energy level of the phosphorescent dye.
A multifunctional solid-state photovoltachromic device comprising at least one n-type layer and at least one p-type layer arranged to create a PN or PIN junction, said n-type layer and p-type layer comprising materials arranged to act as mixed conductors, thus allowing both charge transport and ion conduction, further comprising a counter electrode layer placed on top of the device and an OLED device superimposed to said counter electrode layer , wherein the counter electrode layer is arranged to act as a first electrode of a plurality of electroluminescent layers deposited above it to obtain an electroluminescent functionality.
Profile clamp comprising a clamp band and an annular ring element with a ring body for a profile clamp, wherein the clamp band has two tensioning heads connected to one another via a tensioning element , wherein the ring element comprises at least one first latching tab which axially protrudes from the ring body , wherein the first latching tab has a first latching portion , wherein the first latching portion is designed to exert a force acting in the direction of a transverse centre plane (Q24) of the ring element on a flange of a pipe end, and the first latching portion has a first contact edge , which is designed to establish point contact or line contact with the flange of the pipe end, characterized in that the first latching tab also has a freely rocking portion extending oppositely to the first latching portion , wherein the freely rocking portion is arranged and/or designed such that, at least when the flange of the pipe end is being latched to the first latching portion , the freely rocking portion can rock freely and a perceptible latching noise can be produced and/or made louder, wherein the at least one first latching tab protrudes from the ring body in an axial direction of the profile clamp and protrudes at least partially out of the clamp band , wherein the first latching portion is designed to exert a force acting in the direction of a transverse centre plane (Q10) of the profile clamp on a flange of a pipe end, wherein the freely rocking portion protrudes out of the clamp band , at least partially protrudes radially outwards and has a free end which lies freely in space and does not interact with the clamp band , wherein the first latching portion and the freely rocking portion are in line with one another.
A method comprising: identifying, at an electronic device , one or more spatial features (124-132) present in imagery captured by one or more imaging sensors of the electronic device ; generating, at the electronic device , one or more feature descriptors for the identified one or more spatial features (124-132), wherein each of the generated feature descriptors describes at least an orientation and/or a scale of one or more of the identified spatial features (124-132), wherein the one or more generated feature descriptors are compared to a set of known feature descriptors to identify one or more matched known feature descriptors to identify a pose of the electronic device , wherein a known feature descriptor includes pose information indicating the location of the respective spatial feature within a coordinate system; identifying, at the electronic device , capture conditions for the one or more imaging sensors based on the generated feature descriptors and based on received non-visual pose information obtained from one or more non-visual sensors , the capture conditions comprising motion of the electronic device and illumination in the environment of the electronic device , wherein the motion of the electronic device is identified based on imagery captured at the electronic device and based on received non-visual pose information obtained from the one or more non-visual sensors ; and balancing a gain and an exposure associated with the one or more imaging sensors based on the identified motion and illumination. identifying, at an electronic device , one or more spatial features (124-132) present in imagery captured by one or more imaging sensors of the electronic device ; generating, at the electronic device , one or more feature descriptors for the identified one or more spatial features (124-132), wherein each of the generated feature descriptors describes at least an orientation and/or a scale of one or more of the identified spatial features (124-132), wherein the one or more generated feature descriptors are compared to a set of known feature descriptors to identify one or more matched known feature descriptors to identify a pose of the electronic device , wherein a known feature descriptor includes pose information indicating the location of the respective spatial feature within a coordinate system; identifying, at the electronic device , capture conditions for the one or more imaging sensors based on the generated feature descriptors and based on received non-visual pose information obtained from one or more non-visual sensors , the capture conditions comprising motion of the electronic device and illumination in the environment of the electronic device , wherein the motion of the electronic device is identified based on imagery captured at the electronic device and based on received non-visual pose information obtained from the one or more non-visual sensors ; and balancing a gain and an exposure associated with the one or more imaging sensors based on the identified motion and illumination.
A wireless power receiver comprising: a receiver resonator coupled to an impedance matching network , characterized in that the impedance matching network has a first node (N3) and a second node (N4); a first circuit having a first positive reactance (X 4A ) and a second circuit having a first negative reactance (X 4B ), wherein an absolute value of the first positive reactance (X 4A ) is different from an absolute value of the first negative reactance (X 4B ) and wherein an input of the first circuit and an input of the second circuit is coupled to the first node (N3); a third circuit having a second positive reactance (X 4C ) and a fourth circuit having a second negative reactance (X 4D ), wherein an absolute value of the second positive reactance (X 4C ) is different from an absolute value of the second negative reactance (X 4D ) and wherein an input of the third circuit and an input of the fourth circuit is coupled to the second node (N4); a first rectifier having an input coupled to an output of the first circuit ; a second rectifier having an input coupled to an output of the second circuit ; a third rectifier having an input coupled to an output of the third circuit ; and a fourth rectifier having an input coupled to an output of the fourth circuit . a receiver resonator coupled to an impedance matching network , characterized in that the impedance matching network has a first node (N3) and a second node (N4); a first circuit having a first positive reactance (X 4A ) and a second circuit having a first negative reactance (X 4B ), wherein an absolute value of the first positive reactance (X 4A ) is different from an absolute value of the first negative reactance (X 4B ) and wherein an input of the first circuit and an input of the second circuit is coupled to the first node (N3); a third circuit having a second positive reactance (X 4C ) and a fourth circuit having a second negative reactance (X 4D ), wherein an absolute value of the second positive reactance (X 4C ) is different from an absolute value of the second negative reactance (X 4D ) and wherein an input of the third circuit and an input of the fourth circuit is coupled to the second node (N4); a first rectifier having an input coupled to an output of the first circuit ; a second rectifier having an input coupled to an output of the second circuit ; a third rectifier having an input coupled to an output of the third circuit ; and a fourth rectifier having an input coupled to an output of the fourth circuit .
Brake disk having a main metallic body made of steel or grey iron, having at least one region with formed friction surfaces and at least one region with a formed contact surface for securing of the brake disk, wherein a diffusion layer formed from iron, aluminium and silicon is present within the main metallic body at least in the region of the friction surfaces , which diffusion layer has a layer thickness of 0.1 mm to 0.6 mm and is formed collectively with the steel or grey iron of the main metallic body via diffusion processes.
A fast chirp Phase Locked Loop, PLL, with boosted return time comprising: a Voltage Controlled Oscillator, VCO, configured to generate a Frequency Modulated Continuous Waveform, FMCW, , the VCO responsive to a filtered output voltage of a filter connected to a charge pump , the charge pump responsive to a difference between a reference frequency waveform and a divided frequency waveform generated by a frequency divider configured to divide the FMCW; a digital controller connected to the frequency divider and configured to modify a division ratio of the frequency divider to generate a chirp phase and a return phase , the chirp phase including a first linear change of the FMCW from a start frequency to a stop frequency , and the return phase including a second linear change of the FMCW from the stop frequency to the start frequency; characterized by : a boost circuit connected to the digital controller and the filter, the boost circuit supplying a boost current during the return phase, the boost current proportional to a return slope of the return phase and inversely proportional to a VCO gain of the VCO. a Voltage Controlled Oscillator, VCO, configured to generate a Frequency Modulated Continuous Waveform, FMCW, , the VCO responsive to a filtered output voltage of a filter connected to a charge pump , the charge pump responsive to a difference between a reference frequency waveform and a divided frequency waveform generated by a frequency divider configured to divide the FMCW; a digital controller connected to the frequency divider and configured to modify a division ratio of the frequency divider to generate a chirp phase and a return phase , the chirp phase including a first linear change of the FMCW from a start frequency to a stop frequency , and the return phase including a second linear change of the FMCW from the stop frequency to the start frequency; characterized by : a boost circuit connected to the digital controller and the filter, the boost circuit supplying a boost current during the return phase, the boost current proportional to a return slope of the return phase and inversely proportional to a VCO gain of the VCO.
An apparatus for data communication, comprising: a plurality of bus master circuits (1010a-1010h), each bus master circuit being configured to control point-to-point communication with a corresponding slave device (1004a - 1004h); and a clock generation circuit characterised in that the clock generation circuit is configured to provide pulses in a serial bus clock signal when one or more of the plurality of bus master circuits are in an active state and communicating with its corresponding slave device, and further configured to idle the serial bus clock signal when each of the plurality of bus master circuits is in an idle state, wherein the serial bus clock signal is transmitted over a common clock line to each slave device coupled to one of the plurality of bus master circuits, and wherein each bus master circuit is further configured to communicate with its corresponding slave device in accordance with the timing provided by the serial bus clock signal. a plurality of bus master circuits (1010a-1010h), each bus master circuit being configured to control point-to-point communication with a corresponding slave device (1004a - 1004h); and a clock generation circuit characterised in that the clock generation circuit is configured to provide pulses in a serial bus clock signal when one or more of the plurality of bus master circuits are in an active state and communicating with its corresponding slave device, and further configured to idle the serial bus clock signal when each of the plurality of bus master circuits is in an idle state, wherein the serial bus clock signal is transmitted over a common clock line to each slave device coupled to one of the plurality of bus master circuits, and wherein each bus master circuit is further configured to communicate with its corresponding slave device in accordance with the timing provided by the serial bus clock signal.
A secondary battery comprising: a positive electrode; a negative electrode including negative electrode active material particles that occlude and release Li ions; and a composite electrolyte layer that is arranged between the positive electrode and the negative electrode, wherein the electrolyte layer includes inorganic solid particles including an inorganic compound having an Li ion conductivity of 1×10 -10 S/cm or more at 25 °C and having an average particle diameter of 0.05 μm or more and less than 8 μm; and_an organic electrolyte comprising a gel-like polymer electrolyte, wherein the weight ratio between the organic electrolyte and the inorganic compound is 0.1% or more and 20% or less, wherein, when a mobile Li ion concentration at a contact interface between the inorganic compound and the organic electrolyte is set as C Li(surface) , a lithium ion concentration at the center of particles of the inorganic compound is set as C Li(bulk) , and a mobile Li ion concentration in the organic electrolyte is set as C Li(organic) . C Li(surface) >C Li(organic) ≥C Li(bulk) is satisfied, wherein the average thickness of the electrolyte layer is 0.1 μm or more and less than 8 μm, and wherein the average particle diameter is determined by a laser diffraction method. a positive electrode; a negative electrode including negative electrode active material particles that occlude and release Li ions; and a composite electrolyte layer that is arranged between the positive electrode and the negative electrode, wherein the electrolyte layer includes inorganic solid particles including an inorganic compound having an Li ion conductivity of 1×10 -10 S/cm or more at 25 °C and having an average particle diameter of 0.05 μm or more and less than 8 μm; and_an organic electrolyte comprising a gel-like polymer electrolyte, wherein the weight ratio between the organic electrolyte and the inorganic compound is 0.1% or more and 20% or less, wherein, when a mobile Li ion concentration at a contact interface between the inorganic compound and the organic electrolyte is set as C Li(surface) , a lithium ion concentration at the center of particles of the inorganic compound is set as C Li(bulk) , and a mobile Li ion concentration in the organic electrolyte is set as C Li(organic) . C Li(surface) >C Li(organic) ≥C Li(bulk) is satisfied, wherein the average thickness of the electrolyte layer is 0.1 μm or more and less than 8 μm, and wherein the average particle diameter is determined by a laser diffraction method.
A solar cell panel , comprising: a plurality of solar cell strings (OS1, OS2, IS) each including a plurality of solar cells and a plurality of wiring members connecting the plurality of solar cells in a first direction (x), wherein the plurality of solar cell strings (OS1, OS2, IS) includes a first solar cell string (OS1) positioned adjacent to a first edge of the solar cell panel in a second direction (y) intersecting the first direction (x) and a second solar cell string (OS2) positioned adjacent to a second edge of the solar cell panel in the second direction (y); a sealing member sealing the plurality of solar cell strings (OS1, OS2, IS); a first glass substrate positioned on one surface of the plurality of solar cell strings (OS1, OS2, IS) on the sealing member ; and a second glass substrate positioned on other surface of the plurality of solar cell strings (OS1, OS2, IS) on the sealing member , characterized in that the plurality of wiring members includes a plurality of first wiring members each having a first width (w1), and at least one second wiring member each having a second width (w2) less than the first width (w1), wherein, in at least one of a plurality of first solar cells included in the first solar cell string (OS1), the second wiring member is positioned adjacent to a first side of a first solar cell adjacent to the first edge , and wherein, in at least one of a plurality of second solar cells included in the second solar cell string (OS2), the second wiring member is positioned adjacent to a second side of a second solar cell adjacent to the second edge . a plurality of solar cell strings (OS1, OS2, IS) each including a plurality of solar cells and a plurality of wiring members connecting the plurality of solar cells in a first direction (x), wherein the plurality of solar cell strings (OS1, OS2, IS) includes a first solar cell string (OS1) positioned adjacent to a first edge of the solar cell panel in a second direction (y) intersecting the first direction (x) and a second solar cell string (OS2) positioned adjacent to a second edge of the solar cell panel in the second direction (y); a sealing member sealing the plurality of solar cell strings (OS1, OS2, IS); a first glass substrate positioned on one surface of the plurality of solar cell strings (OS1, OS2, IS) on the sealing member ; and a second glass substrate positioned on other surface of the plurality of solar cell strings (OS1, OS2, IS) on the sealing member , characterized in that the plurality of wiring members includes a plurality of first wiring members each having a first width (w1), and at least one second wiring member each having a second width (w2) less than the first width (w1), wherein, in at least one of a plurality of first solar cells included in the first solar cell string (OS1), the second wiring member is positioned adjacent to a first side of a first solar cell adjacent to the first edge , and wherein, in at least one of a plurality of second solar cells included in the second solar cell string (OS2), the second wiring member is positioned adjacent to a second side of a second solar cell adjacent to the second edge .