mhurhangee/patent-ind-claim-en huggingface dataset:
A lens-less, angle-sensitive pixel (ASP) device sensitive to an intensity and an incident angle of light, comprising: a device support structure; a first periodic, light diffracting structure having a period, p 1 , disposed in the support structure; a second periodic structure having a period, p 2 , oriented parallel to the first periodic, light diffracting structure and disposed in the support structure at a second selected Talbot distance from the first periodic structure to the second periodic structure, z T2 = ( m 2 / n 2 ) (2p 1 2 / λ ), below the first periodic light diffracting structure, where m 2 , n 2 are positive integers, and where p 1 is equal to or greater than λ, which is the wavelength of a monochromatic, plane, incident wavefront on the first periodic, light diffracting structure; and a sensor disposed in the support structure below the second periodic structure, the sensor comprising at least two sets of interleaved diffusion type diodes respectively laterally displaced from the first periodic light diffracting structure by a distance n p 1 / m where n can have the values 0, 1, 2, 3, 4, 5, 6, 7, 8 and m can have the values 2, 3, 4, 8; wherein the sensor is disposed in the support structure at a first selected Talbot distance z T1 = ( m 1 / n 1 )(2p 1 2 /λ), below the first periodic, light diffracting structure, where m 1 , n 1 are positive integers and wherein z T2 is less than z T1 . a device support structure; a first periodic, light diffracting structure having a period, p 1 , disposed in the support structure; a second periodic structure having a period, p 2 , oriented parallel to the first periodic, light diffracting structure and disposed in the support structure at a second selected Talbot distance from the first periodic structure to the second periodic structure, z T2 = ( m 2 / n 2 ) (2p 1 2 / λ ), below the first periodic light diffracting structure, where m 2 , n 2 are positive integers, and where p 1 is equal to or greater than λ, which is the wavelength of a monochromatic, plane, incident wavefront on the first periodic, light diffracting structure; and a sensor disposed in the support structure below the second periodic structure, the sensor comprising at least two sets of interleaved diffusion type diodes respectively laterally displaced from the first periodic light diffracting structure by a distance n p 1 / m where n can have the values 0, 1, 2, 3, 4, 5, 6, 7, 8 and m can have the values 2, 3, 4, 8; wherein the sensor is disposed in the support structure at a first selected Talbot distance z T1 = ( m 1 / n 1 )(2p 1 2 /λ), below the first periodic, light diffracting structure, where m 1 , n 1 are positive integers and wherein z T2 is less than z T1 .
Device to verify the air and water-tightness of an enclosure at a predetermined pressure made to communicate in a sealed manner with a closed measurement space arranged in the verification device that comprises an electronic processing module and a first pressure sensor arranged in said measurement space and able to transmit to the electronic processing module , by a first communication link, a first signal (M6) representative of the pressure in the enclosure , the electronic processing module comprising at least calculations means and memorization means linked to communication means, wherein it comprises at least one precision module able to cooperate with the electronic processing module so as to overcome the temperature variation of the surrounding environment during the performance of processing operations of at least the first signal (M6) representative of the pressure in the enclosure and of the detection of a leak in the enclosure , the precision module comprising at least one temperature sensor able to transmit to the processing module , by a second communication link, a second signal (M9) representative of the surrounding temperature, the processing module in cooperation with the precision module able to perform a first pressure measurement simultaneously with a first temperature measurement and separated by a predetermined time lapse from a second pressure measurement simultaneously with a second associated temperature measurement, the processing module in cooperation with the precision module able to perform the following processing: F = ( P 2 + T 2 − T 1 . P 2 + K 1 / 0,5 . T 1 + 0,5 . T 2 + K 2 − P 1 / Δt where F corresponds to the value of a leak expressed in mbar/24h, P 1 corresponds to the first pressure measured in mbar, P 2 corresponds to the second pressure measured in mbar, T 1 corresponds to the first temperature measured in degrees Celsius at the measurement time of the first pressure, T 2 corresponds to the second temperature measured in degrees Celsius at the measurement time of the second pressure, K 1 and K 2 are constants and Δt corresponds to the time lapse between the two pressure measurements expressed in seconds, the leak being detected when a predetermined leak threshold (S25) stored in the memory is exceeded. F corresponds to the value of a leak expressed in mbar/24h, P 1 corresponds to the first pressure measured in mbar, P 2 corresponds to the second pressure measured in mbar, T 1 corresponds to the first temperature measured in degrees Celsius at the measurement time of the first pressure, T 2 corresponds to the second temperature measured in degrees Celsius at the measurement time of the second pressure, K 1 and K 2 are constants and Δt corresponds to the time lapse between the two pressure measurements expressed in seconds, the leak being detected when a predetermined leak threshold (S25) stored in the memory is exceeded.
A method for the non-destructive testing of the volume of a test object, comprising the following method steps: a. recording a volume raw image of the test object by means of a suitable non-destructive imaging testing method, b. identifying the regions of the volume raw image that are not to be attributed to the test object material, c. checking an identified region as to whether it is completely embedded in regions that are to be associated with the test object material, and, if necessary, assimilating such a region to those regions that are to be associated with the test object material, forming a filled volume raw image, and d. generating the difference between the volume raw image and the filled volume raw image, forming a first flaw image; wherein the volume raw image is additionally processed as follows: e. applying a filter algorithm for amplifying possible flaw indicators, forming a filtered volume raw image, f. limiting the difference between the volume raw image and the filtered volume raw image, thereby forming a second flaw image and merging the first flaw image and the second flaw image into a combined flaw image ; g. forming a volume reference image from volume raw images of one or more test object(s) which was/were classified to be "In order" on the basis of predefined test criteria, and h. generating the difference between, on the one hand, the first flaw image, the second flaw image or the combined flaw image and, on the other hand, the volume reference image. a. recording a volume raw image of the test object by means of a suitable non-destructive imaging testing method, b. identifying the regions of the volume raw image that are not to be attributed to the test object material, c. checking an identified region as to whether it is completely embedded in regions that are to be associated with the test object material, and, if necessary, assimilating such a region to those regions that are to be associated with the test object material, forming a filled volume raw image, and d. generating the difference between the volume raw image and the filled volume raw image, forming a first flaw image; wherein e. applying a filter algorithm for amplifying possible flaw indicators, forming a filtered volume raw image, f. limiting the difference between the volume raw image and the filtered volume raw image, thereby forming a second flaw image and merging the first flaw image and the second flaw image into a combined flaw image ; g. forming a volume reference image from volume raw images of one or more test object(s) which was/were classified to be "In order" on the basis of predefined test criteria, and h. generating the difference between, on the one hand, the first flaw image, the second flaw image or the combined flaw image and, on the other hand, the volume reference image.
A current collector system for a battery module comprising a plurality of battery cells , the current collector system comprising: a first current collector plate and a second current collector plate stacked on each other and thermally insulated from each other; wherein the first current collector plate comprises a plurality of first connection sites connectable to a first group of battery cells of the battery module and the second current collector plate comprises a plurality of second connection sites connectable to a second group of battery cells of the battery module , and characterized in that the second current collector plate comprises a plurality of perforations corresponding to the first connection sites of the first current collector plate for exposing the first connection sites , wherein the second connection sites are away from the plurality of perforations , and a first thermal insulating layer made of thermally insulating material is provided between the first current collector plate and the second current collector plate the first thermal insulating layer being provided with the same perforations as the second current collector plate wherein a minimum distance (S, S') between two first connection sites in the first current collector plate and between two second connection sites in the second current collector plate is greater than the distance between two adjacent connection sites of the current collector system . a first current collector plate and a second current collector plate stacked on each other and thermally insulated from each other; wherein the first current collector plate comprises a plurality of first connection sites connectable to a first group of battery cells of the battery module and the second current collector plate comprises a plurality of second connection sites connectable to a second group of battery cells of the battery module , and characterized in that the second current collector plate comprises a plurality of perforations corresponding to the first connection sites of the first current collector plate for exposing the first connection sites , wherein the second connection sites are away from the plurality of perforations , and a first thermal insulating layer made of thermally insulating material is provided between the first current collector plate and the second current collector plate the first thermal insulating layer being provided with the same perforations as the second current collector plate wherein a minimum distance (S, S') between two first connection sites in the first current collector plate and between two second connection sites in the second current collector plate is greater than the distance between two adjacent connection sites of the current collector system .
A computer implemented method of computer security for a host computer system in communication with remote computer systems, the method comprising: generating an attack map as a directed graph data structure modelling individual events leading to an exploitation of the host computer system, the attack map being generated in a training phase of the host computer system in which the host is subjected to attacks by one or more attacking remote computer systems, and generating the attack map includes the steps of: a) collecting a log of each of a plurality of attack events occurring at the host including network packets involved in each attack event; b) using stacked autoencoders to extract features from the log event in each attack; c) generating a directed graph representation based on each of the extracted features based on a temporal relationship between events for each extracted feature and a predefined definition of each of a plurality of attack patterns defining events and temporal relationships between events, using the attack map in an operational phase of the host computer system to detect security events occurring in a sequence constituting a path through the attack map to identify a sequence of events indicative of an attack, and responsive to the identification, deploying one or more security facilities to mitigate the attack. generating an attack map as a directed graph data structure modelling individual events leading to an exploitation of the host computer system, the attack map being generated in a training phase of the host computer system in which the host is subjected to attacks by one or more attacking remote computer systems, and generating the attack map includes the steps of: a) collecting a log of each of a plurality of attack events occurring at the host including network packets involved in each attack event; b) using stacked autoencoders to extract features from the log event in each attack; c) generating a directed graph representation based on each of the extracted features based on a temporal relationship between events for each extracted feature and a predefined definition of each of a plurality of attack patterns defining events and temporal relationships between events, a) collecting a log of each of a plurality of attack events occurring at the host including network packets involved in each attack event; b) using stacked autoencoders to extract features from the log event in each attack; c) generating a directed graph representation based on each of the extracted features based on a temporal relationship between events for each extracted feature and a predefined definition of each of a plurality of attack patterns defining events and temporal relationships between events, using the attack map in an operational phase of the host computer system to detect security events occurring in a sequence constituting a path through the attack map to identify a sequence of events indicative of an attack, and responsive to the identification, deploying one or more security facilities to mitigate the attack.
Combined fire pump comprising at least one first liquid pump unit which generates a first liquid pressure and has at least one first impeller which can be rotated in a first pump housing cavity connected to a liquid supply, and a second liquid pump unit which is arranged downstream of the first liquid pump unit in the liquid conveying direction (W) of the combined fire pump and which generates a second liquid pressure which is higher than the first liquid pressure and which has at least one second impeller which can be rotated in a second pump housing cavity , a pressure outlet of the first liquid pump unit being connected to a suction inlet of the second liquid pump unit via at least one connection, characterized in that at least one first cross-sectional narrowed portion is formed between at least one stationary inner wall of the first pump housing cavity and the first impeller , forming at least one outer gap for a passage of liquid between the inner wall and the first impeller , the connection being formed by at least one connecting channel which is provided downstream of the outer gap in the liquid conveying direction (Ws) and extends between the first pump housing cavity and the second pump housing cavity , the outer gap being provided between a support disc and/or a cover disc of the first impeller and the inner wall of the first pump housing cavity .
Surgery-assistance device comprising means for offsetting a rotation of a first type and a rotation of a second type, in which the device furthermore comprises a mechanism for transmitting a rotation of a third type and a mechanism for transforming the rotation of a third type into a translation, said translation being enabled along an insertion axis oriented in a direction defined by the means for offsetting the rotation of a first type and the rotation of a second type, the mechanism for transmitting the rotation of a third type being connected to a first end of an elastic element , the second end of the elastic element being connected to the means for offsetting the rotation of a first type and the rotation of a second type, the mechanism for transmitting the rotation of a third type being connected to a rotary motor, the rotation of the rotary motor in a first direction causing the lowering of a tool carried by the surgery-assistance device and a first deformation of the elastic element , the rotation of the rotary motor in a second direction causing the raising of the tool and a second deformation of the elastic element opposite to the first deformation, the tool remaining in a given position as long as a torque exerted by the rotary motor is maintained and, when the tool is in a lowered position and the rotary motor is not exerting any torque, the elastic element returns to an initial shape causing the raising of the tool , and in that the means for offsetting the rotation of a first type and the rotation of a second type comprise two parallelograms connected together and a device for actuating the rotation of a third type and the rotation of a second type, the actuation device generating a rotation movement of a first type, about a first axis (Oy), of a rod of a parallelogram with respect to another rod of said parallelogram, and generating a rotation movement of a second type, about a second axis (Ox), of the two parallelograms with respect to a base of the surgery-assistance device , the first axis (Oy) being perpendicular to the second axis (Ox), and the rotation movements of a first type and of a second type being transmitted by the two parallelograms at an offset centre of rotation .
An uplink information receiving method, comprising: determining, by a network device, a value of a power control parameter in a value set of the power control parameter, wherein any value set of the power control parameter comprises at least two values; sending, by the network device, indication information to a terminal device, wherein the indication information is used to indicate the value of the power control parameter; and receiving, by the network device, uplink information, wherein the uplink information is sent by the terminal device at a transmit power adjusted based on the value of the power control parameter; characterized in that the indication information is carried in a first field in downlink control information, DCI, and the first field is a DCI header, or a modulation and coding scheme MCS. determining, by a network device, a value of a power control parameter in a value set of the power control parameter, wherein any value set of the power control parameter comprises at least two values; sending, by the network device, indication information to a terminal device, wherein the indication information is used to indicate the value of the power control parameter; and receiving, by the network device, uplink information, wherein the uplink information is sent by the terminal device at a transmit power adjusted based on the value of the power control parameter; characterized in that the indication information is carried in a first field in downlink control information, DCI, and the first field is a DCI header, or a modulation and coding scheme MCS.
A method to control a gearshift in a vehicle with a transmission comprising a stepped gearing, the transmission being arranged between an engine and at least one driven axle , wherein the engine and the transmission are controlled by an electronic control unit , the method performing the steps of: - monitoring at least one parameter related to a vehicle operating condition; - registering that a manual upshift command is requested; and - determining a desired shift point and a target engine speed based on a parameter comprising at least current engine speed; the method being characterized by the step of: - performing an upshift when the target engine speed is reached. - monitoring at least one parameter related to a vehicle operating condition; - registering that a manual upshift command is requested; and - determining a desired shift point and a target engine speed based on a parameter comprising at least current engine speed; - performing an upshift when the target engine speed is reached.
A retainer comprising: a retainer main body having a fitting hole; longitudinal ribs formed between a plurality of recessed portions provided along an outer circumferential surface of the retainer main body ; and transverse ribs formed between a plurality of recessed portions provided on the outer circumferential surface of the retainer main body along an axial center direction, wherein the longitudinal ribs and the transverse ribs are connected so as to intersect each other, and thus form a frame structure, characterized in that a surface having a radius of curvature of 0.5 mm or more to 2mm or less is formed in an inner corner portion of the recessed portion . a retainer main body having a fitting hole; longitudinal ribs formed between a plurality of recessed portions provided along an outer circumferential surface of the retainer main body ; and transverse ribs formed between a plurality of recessed portions provided on the outer circumferential surface of the retainer main body along an axial center direction, wherein the longitudinal ribs and the transverse ribs are connected so as to intersect each other, and thus form a frame structure, characterized in that a surface having a radius of curvature of 0.5 mm or more to 2mm or less is formed in an inner corner portion of the recessed portion .
A nonwoven fabric comprising at least one fiber having a first component prepared from at least 75 wt.% of an ethylene/alpha-olefin interpolymer composition, wherein the ethylene/alpha-olefin interpolymer composition has: a density in the range of 0.930 to 0.965 g/cm 3 , a melt index in the range of from 10 to 60 g/10 minutes, wherein the 12 is measured according to ASTM D1238, 190C, 2.16 kg a molecular weight distribution, expressed as the ratio of the weight average molecular weight to number average molecular weight (M w(GPC) /M n(GPC) ) as determined by GPC in the range of from 1.5 to 2.6, a tan delta at 1 radian/second of at least 45, a low temperature peak and a high temperature peak on an improved comonomer composition distribution (ICCD) elution profile by Crystallization Elution Fractionation as defined herein, preferably two distinguishable peaks between 35°C to 110°C, and a full width at half maximum of the high temperature peak is less than 6.0 °C. a density in the range of 0.930 to 0.965 g/cm 3 , a melt index in the range of from 10 to 60 g/10 minutes, wherein the 12 is measured according to ASTM D1238, 190C, 2.16 kg a molecular weight distribution, expressed as the ratio of the weight average molecular weight to number average molecular weight (M w(GPC) /M n(GPC) ) as determined by GPC in the range of from 1.5 to 2.6, a tan delta at 1 radian/second of at least 45, a low temperature peak and a high temperature peak on an improved comonomer composition distribution (ICCD) elution profile by Crystallization Elution Fractionation as defined herein, preferably two distinguishable peaks between 35°C to 110°C, and a full width at half maximum of the high temperature peak is less than 6.0 °C.