mhurhangee/patent-ind-claim-en huggingface dataset:
A method for generating a video production of an event, the method comprising: receiving a plurality of component video signals (122-1..., 122-n) of an event, each component video signal comprising a plurality of component image frames (122-11..., 122-1 n; 122-21..., 122-2n), wherein each component image frame corresponds to a section of a panoramic view of the event; stitching the temporally corresponding component image frames of each component video signals together to generate a plurality of panoramic image frames (220-1..., 220-n); selecting a section (222-1..., 222-n) of each panoramic image frame based on predefined rules and conditions associated with the event to generate a plurality of output image frames (320-1..., 320-n); and generating a video production from the plurality of output image frames; wherein the step of selecting further includes identifying a plurality of image objects in at least one panoramic image frame, and wherein one of the predefined rules and conditions is to select a section of the at least one panoramic image frame containing the image objects; extracting background data from at least one of the panoramic image frames, wherein the step of identifying is based at least on the extracted background data; and determining a density map of image objects of at least one of the panoramic image frames to indicate an area of the panoramic image frame where a large number of image objects are in close proximity to each other, wherein the step of selecting is based at least on the density map. receiving a plurality of component video signals (122-1..., 122-n) of an event, each component video signal comprising a plurality of component image frames (122-11..., 122-1 n; 122-21..., 122-2n), wherein each component image frame corresponds to a section of a panoramic view of the event; stitching the temporally corresponding component image frames of each component video signals together to generate a plurality of panoramic image frames (220-1..., 220-n); selecting a section (222-1..., 222-n) of each panoramic image frame based on predefined rules and conditions associated with the event to generate a plurality of output image frames (320-1..., 320-n); and generating a video production from the plurality of output image frames; wherein the step of selecting further includes identifying a plurality of image objects in at least one panoramic image frame, and wherein one of the predefined rules and conditions is to select a section of the at least one panoramic image frame containing the image objects; extracting background data from at least one of the panoramic image frames, wherein the step of identifying is based at least on the extracted background data; and determining a density map of image objects of at least one of the panoramic image frames to indicate an area of the panoramic image frame where a large number of image objects are in close proximity to each other, wherein the step of selecting is based at least on the density map.
A suspension system , comprising: at least one air spring ; at least one air reservoir external to the air spring ; and at least one flow control device which variably restricts flow of air between the air spring and the air reservoir , characterized in that the air spring has an internal air volume at least 2-1/2 times as great as a volume of the air reservoir , wherein a first pressure in the air spring and a second pressure in the air reservoir act upon at least one closure member of the flow control device , and wherein the at least one closure member opens in response to the first pressure being greater by a predetermined amount than the second pressure. at least one air spring ; at least one air reservoir external to the air spring ; and at least one flow control device which variably restricts flow of air between the air spring and the air reservoir , characterized in that the air spring has an internal air volume at least 2-1/2 times as great as a volume of the air reservoir , wherein a first pressure in the air spring and a second pressure in the air reservoir act upon at least one closure member of the flow control device , and wherein the at least one closure member opens in response to the first pressure being greater by a predetermined amount than the second pressure.
A backlight module, comprising a light guide plate , a light source , an optical film set and at least one light shielding layer , wherein: the light guide plate has a light incident surface and a light emitting surface adjacent to the light incident surface ; the light source is disposed beside the light incident surface ; the optical film set comprises a first surface , a second surface and at least one end surface (203a, 203b, 203c; 203d), the first surface and the second surface are opposite to each other, the at least one end surface (203a, 203b, 203c; 203d) is connected to the first surface and the second surface , the optical film set is disposed on the light emitting surface of the light guide plate , and the first surface faces the light emitting surface ; and the at least one light shielding layer is disposed on the at least one end surface (203a, 203b, 203c; 203d); characterized in that the at least one end surface of the optical film set is a rough surface. the light guide plate has a light incident surface and a light emitting surface adjacent to the light incident surface ; the light source is disposed beside the light incident surface ; the optical film set comprises a first surface , a second surface and at least one end surface (203a, 203b, 203c; 203d), the first surface and the second surface are opposite to each other, the at least one end surface (203a, 203b, 203c; 203d) is connected to the first surface and the second surface , the optical film set is disposed on the light emitting surface of the light guide plate , and the first surface faces the light emitting surface ; and the at least one light shielding layer is disposed on the at least one end surface (203a, 203b, 203c; 203d); characterized in that the at least one end surface of the optical film set is a rough surface.
A replication incompetent, chimeric retroviral-RNA replicon vector particle, comprising: a) an envelope glycoprotein; b) a retroviral vector genome comprising: i. a 5'LTR; ii. a retroviral packaging sequence; iii. a promoter; iv. an alphaviral replicon sequence comprising: a) a 5' untranslated region (5'UTR); b) a sequence encoding an alphavirus replicase; c) a heterologous nucleic acid sequence of interest (SOI); wherein the alphaviral replicon sequence contains a continuous 5' replication signal; and v. a 3'LTR, wherein the 3'LTR is optionally a self-inactivating 3'LTR, wherein the retroviral packaging sequence is located between the 5' replication signal and the full nsP1 coding region, or wherein the retroviral packaging sequence is located between nsP3 and nsP4 and is either followed by an IRES or has a stop codon removed. a) an envelope glycoprotein; b) a retroviral vector genome comprising: i. a 5'LTR; ii. a retroviral packaging sequence; iii. a promoter; iv. an alphaviral replicon sequence comprising: a) a 5' untranslated region (5'UTR); b) a sequence encoding an alphavirus replicase; c) a heterologous nucleic acid sequence of interest (SOI); wherein the alphaviral replicon sequence contains a continuous 5' replication signal; and v. a 3'LTR, wherein the 3'LTR is optionally a self-inactivating 3'LTR, wherein the retroviral packaging sequence is located between the 5' replication signal and the full nsP1 coding region, or i. a 5'LTR; ii. a retroviral packaging sequence; iii. a promoter; iv. an alphaviral replicon sequence comprising: a) a 5' untranslated region (5'UTR); b) a sequence encoding an alphavirus replicase; c) a heterologous nucleic acid sequence of interest (SOI); wherein the alphaviral replicon sequence contains a continuous 5' replication signal; and v. a 3'LTR, wherein the 3'LTR is optionally a self-inactivating 3'LTR, wherein the retroviral packaging sequence is located between the 5' replication signal and the full nsP1 coding region, or
A process for the epoxidation of propene by continuously reacting propene with hydrogen peroxide in the presence of a titanium silicalite catalyst in a tube bundle reactor comprising a multitude of parallel reaction tubes and a cooling jacket enclosing the reaction tubes, said cooling jacket having a feed point for cooling medium near the entry of the reaction tubes and a withdrawal point for cooling medium near the end of the reaction tubes, where the catalyst is arranged as a fixed bed in the reaction tubes, a mixture comprising propene and hydrogen peroxide is continuously introduced to the entry of the reaction tubes and a reaction mixture comprising propene oxide exits at the end of the reaction tubes, characterized in that the cooling jacket has at least one additional withdrawal point for cooling medium upstream of the withdrawal point for cooling medium near the end of the reaction tubes, cooling medium is fed to the feed point for cooling medium, a part of the cooling medium fed to said feed point is withdrawn at the at least one additional withdrawal point and the remainder exits at the withdrawal point near the end of the reaction tubes.
Control device for a vehicle , - having a computing device which is designed to operate a control program for controlling a vehicle function and a test environment with a control test program for testing at least one program element of a vehicle function, - wherein the test environment is defined within a runtime environment delimited by the control program ; - wherein the control test program has a program interface which is designed to integrate and run the at least one program element in a runtime of the control test program ; and wherein the control test program is designed to test the at least one program element of the vehicle function; - wherein the control device has a communication apparatus designed to provide a wireless communication link to the test environment; - wherein the control test program is designed to detect a predetermined vehicle status from data of the vehicle functions and to obtain, via the wireless communication link, at least one predetermined program element associated with the predetermined vehicle status. - having a computing device which is designed to operate a control program for controlling a vehicle function and a test environment with a control test program for testing at least one program element of a vehicle function, - wherein the test environment is defined within a runtime environment delimited by the control program ; - wherein the control test program has a program interface which is designed to integrate and run the at least one program element in a runtime of the control test program ; and wherein the control test program is designed to test the at least one program element of the vehicle function; - wherein the control device has a communication apparatus designed to provide a wireless communication link to the test environment; - wherein the control test program is designed to detect a predetermined vehicle status from data of the vehicle functions and to obtain, via the wireless communication link, at least one predetermined program element associated with the predetermined vehicle status.
A method for use by an apparatus of a communication network, the method comprising: acquiring first packets of a data flow in a first direction, each having a first service chain identifier identifying a first chain of services which have been applied to the first packets in the first direction of the data flow, wherein the first service chain identifier represents a classification result of classification functions used for selecting the first chain of services; characterized in that the method further comprises: calculating, based on the first service chain identifier, a packet filter associated with a second chain of services to be applied to second packets of the data flow in a second direction of the data flow when the second packets enter the communication network in the second direction; determining, as the second packets, packets which enter the communication network in the second direction and match the packet filter; and adding a second service chain identifier identifying the second chain of services to the second packets; imposing, based on the second service chain identifier in the second packets, the same service function instance used for the first packets in the first direction in the second direction for the second packets; and extracting and temporarily storing metadata from the first packets and injecting the metadata in the second packets. acquiring first packets of a data flow in a first direction, each having a first service chain identifier identifying a first chain of services which have been applied to the first packets in the first direction of the data flow, wherein the first service chain identifier represents a classification result of classification functions used for selecting the first chain of services; characterized in that the method further comprises: calculating, based on the first service chain identifier, a packet filter associated with a second chain of services to be applied to second packets of the data flow in a second direction of the data flow when the second packets enter the communication network in the second direction; determining, as the second packets, packets which enter the communication network in the second direction and match the packet filter; and adding a second service chain identifier identifying the second chain of services to the second packets; imposing, based on the second service chain identifier in the second packets, the same service function instance used for the first packets in the first direction in the second direction for the second packets; and extracting and temporarily storing metadata from the first packets and injecting the metadata in the second packets.
Correction fluid comprising: a- an organic solvent; b- a dispersing and wetting agent comprising a polyamine amide of polycarboxylic acid obtained by a reaction between a fatty acid dimer and a diamine, the fatty acid being a C14 to C22 fatty acid, advantageously a polyamine amide salt of polycarboxylic acid; c- an opacifying agent in a content of between 37 and 60 wt.%, based on the total weight of the correction fluid; d- a resin; e- and optionally an additive. a- an organic solvent; b- a dispersing and wetting agent comprising a polyamine amide of polycarboxylic acid obtained by a reaction between a fatty acid dimer and a diamine, the fatty acid being a C14 to C22 fatty acid, advantageously a polyamine amide salt of polycarboxylic acid; c- an opacifying agent in a content of between 37 and 60 wt.%, based on the total weight of the correction fluid; d- a resin; e- and optionally an additive.
A method for processing medical image data, the method comprising: receiving medical image data at a data processing system , the data processing system being an artificial intelligence-based system; performing , at the data processing system , an identification process to identify a subset of the medical image data representing a region of interest including one or more target tendons; performing , at the data processing system , a determination process comprising processing the subset of medical image data to determine one or more characteristics relating to one or more abnormalities of the one or more target tendons; and outputting abnormality data relating to the one or more abnormalities, the abnormality data being based on the one or more characteristics, characterised in that : the data processing system is a neural network system comprising a neural network for performing the identification process and the determination process , the neural network being trained using a single training process. receiving medical image data at a data processing system , the data processing system being an artificial intelligence-based system; performing , at the data processing system , an identification process to identify a subset of the medical image data representing a region of interest including one or more target tendons; performing , at the data processing system , a determination process comprising processing the subset of medical image data to determine one or more characteristics relating to one or more abnormalities of the one or more target tendons; and outputting abnormality data relating to the one or more abnormalities, the abnormality data being based on the one or more characteristics,
An inkjet print head assembly , wherein the inkjet print head assembly comprises • a MEMS-manufactured inkjet chip provided with a number of ejection units, each ejection unit comprising a nozzle for ejecting a droplet of liquid and a liquid supply port for receiving liquid in the ejection unit, wherein the nozzles are arranged in a first chip surface of the inkjet chip and the liquid supply ports are arranged in a second chip surface , the second chip surface being opposite to the first chip surface; • a print head base element having a liquid supply recess , the inkjet chip being arranged on the print head base element over the liquid supply recess, the second chip surface facing the liquid supply recess such that the liquid supply ports are in fluid communication with the liquid supply recess; and • a damper element , the damper element comprising a closed hollow space with a flexible wall , characterized in that the damper element being mounted on the print head base element free of the second chip surface and being arranged in the liquid supply recess, wherein the flexible wall faces the liquid supply ports arranged in the second chip surface, the flexible wall beingarranged at a predetermined damper distance from the second chip surface. • a MEMS-manufactured inkjet chip provided with a number of ejection units, each ejection unit comprising a nozzle for ejecting a droplet of liquid and a liquid supply port for receiving liquid in the ejection unit, wherein the nozzles are arranged in a first chip surface of the inkjet chip and the liquid supply ports are arranged in a second chip surface , the second chip surface being opposite to the first chip surface; • a print head base element having a liquid supply recess , the inkjet chip being arranged on the print head base element over the liquid supply recess, the second chip surface facing the liquid supply recess such that the liquid supply ports are in fluid communication with the liquid supply recess; and • a damper element , the damper element comprising a closed hollow space with a flexible wall ,
An electronic device , comprising: a case that is cooled by a cooling medium; a substrate mounted on the case , the substrate including a land pattern that is in contact with the case ; and a temperature sensor mounted on a surface of the substrate , the temperature sensor measuring a temperature of the case , wherein the case includes: a bottom wall ; a side wall on the bottom wall ; a boss on the bottom wall , the boss supporting the substrate ; and a coupling portion that couples the side wall to the boss and extends from the bottom wall toward the substrate , the boss includes a support surface (A1) that supports the substrate , and the coupling portion includes an opposing surface (A2) that faces the temperature sensor at a position that is lower than a height from the bottom wall to the support surface (A1). a case that is cooled by a cooling medium; a substrate mounted on the case , the substrate including a land pattern that is in contact with the case ; and a temperature sensor mounted on a surface of the substrate , the temperature sensor measuring a temperature of the case , wherein the case includes: a bottom wall ; a side wall on the bottom wall ; a boss on the bottom wall , the boss supporting the substrate ; and a coupling portion that couples the side wall to the boss and extends from the bottom wall toward the substrate , the boss includes a support surface (A1) that supports the substrate , and the coupling portion includes an opposing surface (A2) that faces the temperature sensor at a position that is lower than a height from the bottom wall to the support surface (A1). a bottom wall ; a side wall on the bottom wall ; a boss on the bottom wall , the boss supporting the substrate ; and a coupling portion that couples the side wall to the boss and extends from the bottom wall toward the substrate , the boss includes a support surface (A1) that supports the substrate , and the coupling portion includes an opposing surface (A2) that faces the temperature sensor at a position that is lower than a height from the bottom wall to the support surface (A1).
Method for operating an industrial truck driving over a driving surface on wheel tyres , in particular superelastic tyres or pneumatic tyres, wherein vehicle characteristics of the industrial truck are controlled by a vehicle control device and tyre wear of the wheel tyres is measured by a tyre wear measuring device , wherein at least one vehicle characteristic of the industrial truck is actively influenced by the vehicle control device as a function of the tyre wear of the wheel tyres , wherein a maximum permissible driving speed of the industrial truck , which is changed actively as a function of the tyre wear of the wheel tyres , is used as the vehicle characteristic, in particular the maximum permissible driving speed in the reverse direction of travel, characterized in that the maximum permissible driving speed is adapted as a function of a change in the position and/or orientation of a collision sensor (16; 17) arranged on the industrial truck relative to the driving surface caused by the tyre wear of the wheel tyres .