mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for obtaining a vehicle loss assessment image, comprising: receiving captured video data of a damaged vehicle; detecting a damaged portion of the vehicle in a plurality of video images from the captured video data using a deep neural network; classifying the plurality of video images based on the detected damaged portion of the vehicle to determine one or more candidate image classification sets of the damaged portion, wherein the one or more candidate image classification sets comprises a close-up image set of the damaged portion and a component image set of a vehicle component to which the damaged portion belongs, and classifying the plurality of video images into the close-up image set comprises: automatically sorting the plurality of video images including the damaged portion in a descending order according to an area of the damaged portion in the video images; and selecting, from the sorted plurality of video images, a first one or more video images, wherein in each video image, a ratio between an area of the damaged portion in the video image and an area of the video image is greater than a threshold ratio; and selecting a vehicle loss assessment image from the one or more candidate image classification sets according to a clarity of the damaged portion in the plurality of video images in the one or more candidate image classification sets and the filming angle of the damaged portion of the plurality of video images in the one or more candidate image classification sets, whereby the clarity of the damaged portion is determined using a spatial or frequency domain-based operator. receiving captured video data of a damaged vehicle; detecting a damaged portion of the vehicle in a plurality of video images from the captured video data using a deep neural network; classifying the plurality of video images based on the detected damaged portion of the vehicle to determine one or more candidate image classification sets of the damaged portion, wherein the one or more candidate image classification sets comprises a close-up image set of the damaged portion and a component image set of a vehicle component to which the damaged portion belongs, and classifying the plurality of video images into the close-up image set comprises: automatically sorting the plurality of video images including the damaged portion in a descending order according to an area of the damaged portion in the video images; and selecting, from the sorted plurality of video images, a first one or more video images, wherein in each video image, a ratio between an area of the damaged portion in the video image and an area of the video image is greater than a threshold ratio; and selecting a vehicle loss assessment image from the one or more candidate image classification sets according to a clarity of the damaged portion in the plurality of video images in the one or more candidate image classification sets and the filming angle of the damaged portion of the plurality of video images in the one or more candidate image classification sets, whereby the clarity of the damaged portion is determined using a spatial or frequency domain-based operator.
Luminaire with a light source as well as a deflection device with at least one deflection element via which the light emitted from the light source may be optionally emitted through the luminaire via a first light path or a second light path, wherein means are arranged in at least one of the two light paths (2, 3), via which the light emitted via these light paths (2, 3) may be changed in its colour, shape, intensity and/or radiation direction, characterised in that a further deflection device is arranged in a light path (2, 3), which so directs the emitted light of the light path back again to the first deflection device, that the emitted light then runs congruently with the emitted light of the other light path (2, 3).
A machining time prediction device predicting a time taken for machining by a wire discharge machining device based on a program, comprising: a predicted machining speed table where predicted machining speeds are registered in association with shape groups used for classification based on at least a shape of a partial machining path; a machining path generation unit generating machining path data including the machining path based on the program; a shape group determination unit determining which shape group among the shape groups each partial machining path included in the machining path of the machining path data generated by the machining path generation unit belongs to; a path length addition unit adding and summarizing path lengths of the partial machining paths for the respective shape groups on the basis of a result of determination by the shape group determination unit; a predicted machining time calculation unit calculating predicted machining times of the respective shape groups on the basis of the predicted machining speed table and the path lengths of the respective shape groups summarized by the path length addition unit; a predicted machining time summation unit calculating the predicted machining time of the machining path by summing the predicted machining times of the respective shape groups calculated by the predicted machining time calculation unit; and a display unit displaying the predicted machining time of the machining path calculated by the predicted machining time summation unit. a predicted machining speed table where predicted machining speeds are registered in association with shape groups used for classification based on at least a shape of a partial machining path; a machining path generation unit generating machining path data including the machining path based on the program; a shape group determination unit determining which shape group among the shape groups each partial machining path included in the machining path of the machining path data generated by the machining path generation unit belongs to; a path length addition unit adding and summarizing path lengths of the partial machining paths for the respective shape groups on the basis of a result of determination by the shape group determination unit; a predicted machining time calculation unit calculating predicted machining times of the respective shape groups on the basis of the predicted machining speed table and the path lengths of the respective shape groups summarized by the path length addition unit; a predicted machining time summation unit calculating the predicted machining time of the machining path by summing the predicted machining times of the respective shape groups calculated by the predicted machining time calculation unit; and a display unit displaying the predicted machining time of the machining path calculated by the predicted machining time summation unit.
A method of producing oil and gas from a well, the method comprising the steps of: a) channeling field production into a sealed vessel through an inlet pipe attached to the bottom of the vessel and connected to a subsea production manifold or flowline, the sealed vessel being conical and having a larger cross section at a lower end supported at a sea floor and a smaller cross section at an upper end that extends to a sea surface; b) permitting oil and gas components of the field production to separate from water and other fluids within the vessel; c) lowering the pressure in the vessel to allow for gas to gather to the top of the vessel; d) pumping seawater into the vessel to increase pressure at the vessel and thereby aid in the production of oil and gas from the vessel; and e) evacuating the separated pressurized oil and gas from the vessel via pipelines attached to the vessel at locations corresponding to the separated pressurized oil and gas. a) channeling field production into a sealed vessel through an inlet pipe attached to the bottom of the vessel and connected to a subsea production manifold or flowline, the sealed vessel being conical and having a larger cross section at a lower end supported at a sea floor and a smaller cross section at an upper end that extends to a sea surface; b) permitting oil and gas components of the field production to separate from water and other fluids within the vessel; c) lowering the pressure in the vessel to allow for gas to gather to the top of the vessel; d) pumping seawater into the vessel to increase pressure at the vessel and thereby aid in the production of oil and gas from the vessel; and e) evacuating the separated pressurized oil and gas from the vessel via pipelines attached to the vessel at locations corresponding to the separated pressurized oil and gas.
A concentrator for a nonblocking interconnection network comprising a plurality of n global inputs and a plurality of n global outputs for processing m active inputs to m outputs, wherein m ≤ n, and wherein each input x[i] includes data bits data(x[i]) and a single valid bit valid(x[i]), wherein the concentrator comprises log 2 (n) columns with n/2 rows of 2×2 crossbar switches, wherein the crossbar switches of each of the log 2 (n) columns are connected with corresponding crossbar switches of the next column starting from the n global inputs to the n global outputs, wherein a configuration module for configuring the crossbar switches is comprised, wherein the configuration module comprises the first column of n/2 rows of the 2×2 crossbar switches of the concentrator, each input of said crossbar switches is connected to one of the n global inputs and the outputs of said crossbar switches are interleavingly connected by a flip shuffle permutation to the inputs of two internal concentrators with n/2 internal inputs and n/2 internal outputs, wherein said n/2 internal outputs are interleavingly connected to the n global outputs by a butterfly permutation, wherein the configuration of the crossbar switches belonging to a given column is based on the parity of the number of valid inputs of the respective column and wherein the parity of the number of valid inputs of all the columns are computed in parallel, and wherein the parity of the number of valid inputs of a column defines whether the number of valid inputs x[0..i] of said column is even or odd at position i, characterized in that the configuration module yields a binary tree of base modules and the base modules comprise three modules arranged in a sequence, wherein the first and the second module of said three modules comprises the control logic for the crossbar switches of the configuration module and the third module of said three modules comprises said crossbar switches, and wherein the first module comprises n elements arranged in a row, each of said elements being connected to a global input, wherein each of these elements is configured and adapted to determine whether an input x[i] is considered to be active and wherein the second module is configured and adapted to compute for all even numbers i parity bits as p[i]:= x ⊕... ⊕ x[i] for activity bits x[i], where ⊕ denotes the exclusive-or operation.
Carbon nanotubes each comprising a wall that comprises a parallel portion and a narrowed portion having a tube outer diameter that is not more than 90% of a tube outer diameter of the parallel portion, in which when preparing a 0.1% dispersion of the carbon nanotubes, drying the dispersion on a sample table, photographing the thus dried carbon nanotubes at a magnification of 20,000 times using a transmission electron microscope to obtain a micrograph of the carbon nanotubes, dividing the micrograph into sections each having an area of 100 nm square, and selecting 300 sections each having a carbon nanotube occupied area ratio of 10 to 80%, a proportion of the sections in each of which at least one narrowed portion is present is not less than 70% among the 300 sections.
An assembly for use in a Portable Water and Climatic Production system, the assembly comprising: a cabinet with an airflow passage therein, said airflow passage including at least an extraction process section and a reactivation process section; a desiccant rotor wheel mounted inside the cabinet and having an inner core which is impregnated with a desiccant type material and a metallic outer shell which surrounds the desiccant core material; a motor configured to rotate the desiccant rotor wheel within the cabinet; and a microwave reactivation system having a microwave heating chamber configured to generate microwaves therein; characterized in that the microwave reactivation system (35A, 36A) is positioned within the reactivation process section of the airflow passage and is configured for generating heat therein; in that the desiccant rotor wheel is mounted within the cabinet and configured such that a first portion of the desiccant rotor wheel is positioned within the extraction process section of said airflow passage, and a second portion of the desiccant rotor wheel is positioned within the microwave reactivation system (35A, 36A) of the reactivation process section of the airflow passage; and in that the motor is configured to rotate the desiccant rotor wheel at least partially through the microwave heating chamber to expose simultaneously different portions of the desiccant core material of the rotor wheel to both the microwave reactivation system (35A, 36A) in the reactivation process section and to the extraction process section of the airflow passage. a cabinet with an airflow passage therein, said airflow passage including at least an extraction process section and a reactivation process section; a desiccant rotor wheel mounted inside the cabinet and having an inner core which is impregnated with a desiccant type material and a metallic outer shell which surrounds the desiccant core material; a motor configured to rotate the desiccant rotor wheel within the cabinet; and a microwave reactivation system having a microwave heating chamber configured to generate microwaves therein; characterized in that the microwave reactivation system (35A, 36A) is positioned within the reactivation process section of the airflow passage and is configured for generating heat therein; in that the desiccant rotor wheel is mounted within the cabinet and configured such that a first portion of the desiccant rotor wheel is positioned within the extraction process section of said airflow passage, and a second portion of the desiccant rotor wheel is positioned within the microwave reactivation system (35A, 36A) of the reactivation process section of the airflow passage; and in that the motor is configured to rotate the desiccant rotor wheel at least partially through the microwave heating chamber to expose simultaneously different portions of the desiccant core material of the rotor wheel to both the microwave reactivation system (35A, 36A) in the reactivation process section and to the extraction process section of the airflow passage.
Echo-scintigraphic probe for medical applications, comprising: - an echographic probe comprising a plurality of piezoelectric bands (11.1) extended along an axis y and adjacent to one another along an axis x perpendicular to said y axis, said y axis defining the scanning direction of the echographic probe; - a scintigraphic probe for the detection of gamma rays, comprising: - a collimator; - a scintillation crystal with a scintillation crystal section on a section plane parallel to the two directions x and y and perpendicular to an axis z; wherein the scintillation crystal, the collimator and the echographic probe are disposed in line, in the order along said z-axis, in such a way that they are integral with each other and such that: - the echographic probe constitutes an end of said echo-scintigraphic probe and is apt to contact, in use, a zone of biological tissue to be analysed; - the orthogonal projection of said echographic probe on said section plane overlaps said scintillation crystal section on a overlapping area smaller than or equal to the half of said scintillation crystal section; said echo-scintigraphic probe being characterized in that said collimator is a SLIT collimator with a plurality of collimation slits (14.1), and the piezoelectric bands (11.1) of said plurality of piezoelectric bands (11.1) are aligned to the collimation slits (14.1) of said plurality of collimation slits. - an echographic probe comprising a plurality of piezoelectric bands (11.1) extended along an axis y and adjacent to one another along an axis x perpendicular to said y axis, said y axis defining the scanning direction of the echographic probe; - a scintigraphic probe for the detection of gamma rays, comprising: - a collimator; - a scintillation crystal with a scintillation crystal section on a section plane parallel to the two directions x and y and perpendicular to an axis z; wherein the scintillation crystal, the collimator and the echographic probe are disposed in line, in the order along said z-axis, in such a way that they are integral with each other and such that: - a collimator; - a scintillation crystal with a scintillation crystal section on a section plane parallel to the two directions x and y and perpendicular to an axis z; - the echographic probe constitutes an end of said echo-scintigraphic probe and is apt to contact, in use, a zone of biological tissue to be analysed; - the orthogonal projection of said echographic probe on said section plane overlaps said scintillation crystal section on a overlapping area smaller than or equal to the half of said scintillation crystal section;
A vehicle differential disconnect assembly, comprising: a differential case; a differential gear set carried within said differential case; and a torque distribution device transferring torque between said differential gear set and side shafts (136, 138) of the vehicle, said torque distribution device including a clutch pack and an actuator assembly, characterised in that said clutch pack is located at a first side of said differential case relative to said differential gear set, said actuator assembly is located at a second side of said differential case relative to said differential gear set, said actuator assembly has a mover that transmits movement to said clutch pack, when said actuator assembly actuates and deactuates said clutch pack, said mover spanning the first and second sides (249, 251) between said clutch pack and said actuator assembly. a differential case; a differential gear set carried within said differential case; and a torque distribution device transferring torque between said differential gear set and side shafts (136, 138) of the vehicle, said torque distribution device including a clutch pack and an actuator assembly, characterised in that said clutch pack is located at a first side of said differential case relative to said differential gear set, said actuator assembly is located at a second side of said differential case relative to said differential gear set, said actuator assembly has a mover that transmits movement to said clutch pack, when said actuator assembly actuates and deactuates said clutch pack, said mover spanning the first and second sides (249, 251) between said clutch pack and said actuator assembly.
Plug-in connector for mechanical and electrical connection to a corresponding mating plug-in connector, comprising a housing, two individual, identical protective conductor bridges and a plug insert, wherein the protective conductor bridges are held on the housing, wherein the protective conductor bridges each have two connecting regions for connection to the plug insert and the plug insert is held on the connecting regions of the protective conductor bridges, wherein the two connecting regions of each protective conductor bridge are formed on axial end regions of the protective conductor bridge and each protective conductor bridge has an elongate bridge main body on the sides of which the connecting regions are formed, wherein the housing has a plug opening with two opposite sides and one of the protective conductor bridges is attached to each of the two opposite sides, wherein the plug insert is jointly held on the two protective conductor bridges.
A method performed by a first core network function, NF, entity of providing requested network information to a second NF entity (14, 15), comprising: receiving (S101, S201, S301) a request to obtain the network information, which request originates from the second NF entity (14, 15), and comprises an indication of periodicity with which the requested network information is to be obtained; determining (S102, S202, S302) an expiry time stipulating how long the requested network information is valid; and transmitting (S103, S203, S303), towards the second NF entity (14, 15), the requested network information and the expiry time. receiving (S101, S201, S301) a request to obtain the network information, which request originates from the second NF entity (14, 15), and comprises an indication of periodicity with which the requested network information is to be obtained; determining (S102, S202, S302) an expiry time stipulating how long the requested network information is valid; and transmitting (S103, S203, S303), towards the second NF entity (14, 15), the requested network information and the expiry time.
A method for producing a group III nitride crystal, comprising the steps of: cutting a plurality of group III nitride crystal substrates having a main plane from a group III nitride bulk crystal, the main plane having a plane orientation with an off-angle of five degrees or less with respect to a crystal-geometrically equivalent plane orientation selected from the group consisting of,,, and; transversely arranging the substrates adjacent to each other such that the main planes of the substrates are parallel to each other and each direction of the substrates coincides with each other; and growing a group III nitride crystal on the main planes of the substrates, wherein the method for growing the group III nitride crystal is a hydride vapor phase epitaxy method, wherein in the step of growing a group III nitride crystal a group III nitride crystal having the following impurity atom concentrations is grown: an oxygen atom concentration of between 1 × 10 16 cm -3 and 4 × 10 19 cm -3 inclusive, a silicon atom concentration of between 6 × 10 14 cm -3 and 5 × 10 18 cm -3 inclusive, a hydrogen atom concentration of between 6 × 10 16 cm -3 and 1 × 10 18 cm -3 inclusive, and a carbon atom concentration of between 9 × 10 16 cm -3 and 7 × 10 17 cm -3 inclusive. cutting a plurality of group III nitride crystal substrates having a main plane from a group III nitride bulk crystal, the main plane having a plane orientation with an off-angle of five degrees or less with respect to a crystal-geometrically equivalent plane orientation selected from the group consisting of,,, and; transversely arranging the substrates adjacent to each other such that the main planes of the substrates are parallel to each other and each direction of the substrates coincides with each other; and growing a group III nitride crystal on the main planes of the substrates, wherein the method for growing the group III nitride crystal is a hydride vapor phase epitaxy method, wherein in the step of growing a group III nitride crystal a group III nitride crystal having the following impurity atom concentrations is grown: an oxygen atom concentration of between 1 × 10 16 cm -3 and 4 × 10 19 cm -3 inclusive, a silicon atom concentration of between 6 × 10 14 cm -3 and 5 × 10 18 cm -3 inclusive, a hydrogen atom concentration of between 6 × 10 16 cm -3 and 1 × 10 18 cm -3 inclusive, and a carbon atom concentration of between 9 × 10 16 cm -3 and 7 × 10 17 cm -3 inclusive. an oxygen atom concentration of between 1 × 10 16 cm -3 and 4 × 10 19 cm -3 inclusive, a silicon atom concentration of between 6 × 10 14 cm -3 and 5 × 10 18 cm -3 inclusive, a hydrogen atom concentration of between 6 × 10 16 cm -3 and 1 × 10 18 cm -3 inclusive, and a carbon atom concentration of between 9 × 10 16 cm -3 and 7 × 10 17 cm -3 inclusive.