mhurhangee/patent-ind-claim-en huggingface dataset:
A transmission device comprising: a transmission unit configured to transmit a transport stream in a predetermined format, the transport stream comprising a video elementary stream including encoded image data, an event information table, and a program map table; and an auxiliary information inserting unit configured to insert spatial auxiliary information into the video elementary stream as a supplemental enhancement information, SEI, message, characterized in that spatial downscaling information indicating an available ratio in downscaling the spatial resolution is inserted under a video elementary loop of the program map table, wherein the transmission device further comprises a resolution information inserting unit configured to insert spatial resolution information of the encoded image data under the event information table, wherein the spatial auxiliary information indicates a limit of accuracy for a motion vector included in the encoded image data by indicating that the limit of accuracy is changeable from 1/4 pixel accuracy to 1/2 pixel accuracy or 1 pixel accuracy wherein the encoded image data are transmitted without scalable coding. a transmission unit configured to transmit a transport stream in a predetermined format, the transport stream comprising a video elementary stream including encoded image data, an event information table, and a program map table; and an auxiliary information inserting unit configured to insert spatial auxiliary information into the video elementary stream as a supplemental enhancement information, SEI, message, characterized in that spatial downscaling information indicating an available ratio in downscaling the spatial resolution is inserted under a video elementary loop of the program map table, wherein the transmission device further comprises a resolution information inserting unit configured to insert spatial resolution information of the encoded image data under the event information table, wherein the spatial auxiliary information indicates a limit of accuracy for a motion vector included in the encoded image data by indicating that the limit of accuracy is changeable from 1/4 pixel accuracy to 1/2 pixel accuracy or 1 pixel accuracy wherein the encoded image data are transmitted without scalable coding.
Washing apparatus, in particular for heat-disinfection, comprising a plurality of washer machines , which are positioned aligned along an axis of alignment (T), and a movement device configured to move at least an object-bearing container parallel to said axis of alignment (T), wherein said movement device is provided with: - a trolley configured to transport said container and provided with sliding means guided by a guide element which extends parallel to said axis of alignment (T); - movement means configured to move said trolley parallel to said guide element ; wherein said washing apparatus also comprises a frame , disposed along said axis of alignment (T) and configured so as to define a plurality of housing zones in which said washer machines are positioned, and in that said movement means is supported, at least partly, by said frame ; wherein said movement device comprises a first movement device , to move said container onto said trolley driven by a second motor and by second mechanical transmission means and a second movement device able to move said container into one of said washer machines , characterised in that the first movement device is disposed on the trolley , and in that the second movement device is driven by a third motor and by third mechanical transmission means . - a trolley configured to transport said container and provided with sliding means guided by a guide element which extends parallel to said axis of alignment (T); - movement means configured to move said trolley parallel to said guide element ; wherein said washing apparatus also comprises a frame , disposed along said axis of alignment (T) and configured so as to define a plurality of housing zones in which said washer machines are positioned, and in that said movement means is supported, at least partly, by said frame ; wherein said movement device comprises a first movement device , to move said container onto said trolley driven by a second motor and by second mechanical transmission means and a second movement device able to move said container into one of said washer machines , characterised in that the first movement device is disposed on the trolley , and in that the second movement device is driven by a third motor and by third mechanical transmission means .
A card flipper comprising: a frame ; a receptacle supported by the frame for rotation about a flipping axis , the receptacle configured to support a card in a support plane and receive and discharge cards along a card feed axis ; and a motor configured to drive rotation of the receptacle , the support plane and the card feed axis about the flipping axis ; characterized in that the flipping axis is oblique to the card feed axis and is displaced from the support plane . a frame ; a receptacle supported by the frame for rotation about a flipping axis , the receptacle configured to support a card in a support plane and receive and discharge cards along a card feed axis ; and a motor configured to drive rotation of the receptacle , the support plane and the card feed axis about the flipping axis ; characterized in that the flipping axis is oblique to the card feed axis and is displaced from the support plane .
A biopsy device, comprising: a disposable needle assembly having a first cannula , a second cannula , a first cannula driver , and a second cannula driver , the first cannula driver connected to a first portion (24-1) of the first cannula , the second cannula driver being connected to a first portion (26-2) of the second cannula , the first cannula driver having a first rack member and a flange connected to the first rack member , the second cannula driver having a second rack member ; and a drive assembly having a power source , a linear motor drive having at least one linear motor , a transmission assembly , a switching motor drive having at least one DC motor , and an electrical controller circuit , the power source configured to supply electrical power to each of the linear motor drive , the switching motor drive , and the electrical controller circuit ; the electrical controller circuit configured to execute program instructions to selectively operate the linear motor drive and the switching motor drive ; the transmission assembly having a gear assembly drivably coupled to the switching motor drive , the gear assembly configured to releasably engage at least one of the first rack member of the first cannula driver and the second rack member of the second cannula driver ; and a coupler member connected to the linear motor drive , the coupler member configured to engage the flange of the first cannula driver . a disposable needle assembly having a first cannula , a second cannula , a first cannula driver , and a second cannula driver , the first cannula driver connected to a first portion (24-1) of the first cannula , the second cannula driver being connected to a first portion (26-2) of the second cannula , the first cannula driver having a first rack member and a flange connected to the first rack member , the second cannula driver having a second rack member ; and a drive assembly having a power source , a linear motor drive having at least one linear motor , a transmission assembly , a switching motor drive having at least one DC motor , and an electrical controller circuit , the power source configured to supply electrical power to each of the linear motor drive , the switching motor drive , and the electrical controller circuit ; the electrical controller circuit configured to execute program instructions to selectively operate the linear motor drive and the switching motor drive ; the transmission assembly having a gear assembly drivably coupled to the switching motor drive , the gear assembly configured to releasably engage at least one of the first rack member of the first cannula driver and the second rack member of the second cannula driver ; and a coupler member connected to the linear motor drive , the coupler member configured to engage the flange of the first cannula driver .
Variable valve train for a lifting valve, in particular for a gas exchange valve of an internal combustion engine, which valve can be moved periodically indirectly by way of a cam via a rocker arm between a closed and an open position, comprising (a) a camshaft , having at least one first cam and at least one second cam which is arranged offset in the longitudinal direction of the camshaft , the at least one first cam and the at least one second cam being of different design in terms of their cam contour; (b) a rocker arm which is mounted such that it can be pivoted about a rocker arm axis , which rocker arm is assigned to the at least one first cam via a roller at its camshaft-side end and is operatively connected to at least one lifting valve at its valve-side end ; (c) a roller lever which is assigned to the at least one second cam via at least one roller at its camshaft-side end and is articulated at its other end on the rocker arm such that it can be pivoted about the rocker arm axis , (d) a switchable hydraulic locking device , by way of which the rocker arm and the roller lever can optionally (d1) be locked rigidly to one another, both following the movement of the at least one second cam , or (d2) be unlocked from one another, both following the respectively associated cams independently of one another, characterized (a) in that the roller lever is connected to the rocker arm via a hinge ; and/or (b) in that the rocker arm and the roller lever in each case have a pivot pin seat , which pivot pin seats are aligned with respect to one another and have an inserted pivot pin . (a) a camshaft , having at least one first cam and at least one second cam which is arranged offset in the longitudinal direction of the camshaft , the at least one first cam and the at least one second cam being of different design in terms of their cam contour; (b) a rocker arm which is mounted such that it can be pivoted about a rocker arm axis , which rocker arm is assigned to the at least one first cam via a roller at its camshaft-side end and is operatively connected to at least one lifting valve at its valve-side end ; (c) a roller lever which is assigned to the at least one second cam via at least one roller at its camshaft-side end and is articulated at its other end on the rocker arm such that it can be pivoted about the rocker arm axis , (d) a switchable hydraulic locking device , by way of which the rocker arm and the roller lever can optionally (d1) be locked rigidly to one another, both following the movement of the at least one second cam , or (d2) be unlocked from one another, both following the respectively associated cams independently of one another, (d1) be locked rigidly to one another, both following the movement of the at least one second cam , or (d2) be unlocked from one another, both following the respectively associated cams independently of one another, (a) in that the roller lever is connected to the rocker arm via a hinge ; and/or (b) in that the rocker arm and the roller lever in each case have a pivot pin seat , which pivot pin seats are aligned with respect to one another and have an inserted pivot pin .
A positive electrode active material for a secondary battery , the positive electrode active material comprising a lithium-transition metal composite oxide, the lithium-transition metal composite oxide represented by the general formula Li α [Li x Mn y Co z Me (1-x-y-z) ]O 2 wherein Me is at least one selected from Ni, Fe, Ti, Bi, and Nb, 0.5 < α < 1, 0.05 <x<0.25, 0.4 < y < 0.75, and 0 < z < 0.25, the lithium-transition metal composite oxide having a crystal structure of an O2 structure and belonging to a space group P6 3 mc, the lithium-transition metal composite oxide having a particle size distribution having a first peak corresponding to a first particle group and a second peak corresponding to a second particle group wherein the particles in the first particle group have a smaller average particle diameter than the particles in the second particle group. the lithium-transition metal composite oxide represented by the general formula Li α [Li x Mn y Co z Me (1-x-y-z) ]O 2 wherein Me is at least one selected from Ni, Fe, Ti, Bi, and Nb, 0.5 < α < 1, 0.05 <x<0.25, 0.4 < y < 0.75, and 0 < z < 0.25, the lithium-transition metal composite oxide having a crystal structure of an O2 structure and belonging to a space group P6 3 mc, the lithium-transition metal composite oxide having a particle size distribution having a first peak corresponding to a first particle group and a second peak corresponding to a second particle group wherein the particles in the first particle group have a smaller average particle diameter than the particles in the second particle group.
Displacement control device for variably adjusting the displacement of an hydraulic axial piston pump comprising a rotary shaft mounted rotatable in a housing around a rotary shaft axis of the rotary shaft , said rotary shaft having a first end and a second end , wherein to the second end , which protrudes outside of the housing , a torque can be applied for rotating the rotary shaft to open and close servo pressure lines arranged within the housing , which can conduct hydraulic fluid to and from a servo adjusting unit capable to adjust the displacement volume of the axial piston hydraulic pump , said rotary shaft further comprising a mid-portion located between the first end and second end , characterized in that concentric to the rotary shaft axis in the mid-portion of the rotary shaft a detent sleeve is positioned comprising an abutment area onto which, in the neutral position of the displacement control device , a sliding element abuts, which is mounted pre-stressed in the housing exerting a resilient force onto the detent sleeve transverse to the rotary shaft axis , wherein the detent sleeve in operating conditions of the displacement control device , is rotatable fixed with the rotary shaft and turns with the rotary shaft , however, for neutral position adjustments in non-operating conditions, the detent sleeve and the rotary shaft are detachable from each other, such that the rotary shaft be can be turned independently within the detent sleeve which is held in its neutral position by the transverse force of the sliding element onto the abutment area .
A method in a first network entity which is capable of communicating over a plurality of communication links with a second network entity, wherein the first network entity: determines a level of transmit traffic transmitted over the plurality of communication links to the second network entity; determines a level of receive traffic received over the plurality of communication links from the second network entity; determines if the level of transmit traffic and the level of receive traffic meet one or more requirements for changing a number of active links of the plurality of communication links, and if so, changes the number of active links independently of the second network entity, wherein changing the number of active links independently of the second network entity comprises changing the number of active links without exchanging messages or information relating to changing the number of active links prior, during, or after the changing of the number of active links, and characterised in that the first network entity runs in a Link Aggregation Control Protocol, LACP, active mode and operates with the second network entity running in a LACP passive mode and not being configured to determine if a level of transmit traffic and a level of receive traffic meets one or more requirements for changing the number of active links of the plurality of communication links. determines a level of transmit traffic transmitted over the plurality of communication links to the second network entity; determines a level of receive traffic received over the plurality of communication links from the second network entity; determines if the level of transmit traffic and the level of receive traffic meet one or more requirements for changing a number of active links of the plurality of communication links, and if so, changes the number of active links independently of the second network entity, wherein changing the number of active links independently of the second network entity comprises changing the number of active links without exchanging messages or information relating to changing the number of active links prior, during, or after the changing of the number of active links, and characterised in that the first network entity runs in a Link Aggregation Control Protocol, LACP, active mode and operates with the second network entity running in a LACP passive mode and not being configured to determine if a level of transmit traffic and a level of receive traffic meets one or more requirements for changing the number of active links of the plurality of communication links.
Shooting arrangement, comprising: - at least one bullet-proof and sound-insulating firing channel having an entrance region configured for firing shots and an end region spaced therefrom and configured as a target region, and - positioning means for positioning the firing channel at a desired height above ground and orientation, wherein - the firing channel is bounded by a lower base wall and by a top wall arranged thereabove at a distance, wherein the base wall and the top wall are either substantially parallel to one another or diverging vertically along the firing direction, wherein the firing channel has a clear height (h1) of 0.8 to 1.2 m at the entrance region and a clear height (h2) of 0.8 to 2.0 m at the end region, - the end region is formed by a soft ballistic closure body acting as a bullet trap, which spans across at least the clear height (h2) in the end region of the firing channel and which defines a firing path (L) between the entrance region and the closure body, and - a ventilation device is provided by means of which the entrance region can be supplied with fresh air and exhaust air can be discharged from the entrance area through the firing channel. - at least one bullet-proof and sound-insulating firing channel having an entrance region configured for firing shots and an end region spaced therefrom and configured as a target region, and - positioning means for positioning the firing channel at a desired height above ground and orientation, - the firing channel is bounded by a lower base wall and by a top wall arranged thereabove at a distance, wherein the base wall and the top wall are either substantially parallel to one another or diverging vertically along the firing direction, wherein the firing channel has a clear height (h1) of 0.8 to 1.2 m at the entrance region and a clear height (h2) of 0.8 to 2.0 m at the end region, - the end region is formed by a soft ballistic closure body acting as a bullet trap, which spans across at least the clear height (h2) in the end region of the firing channel and which defines a firing path (L) between the entrance region and the closure body, and - a ventilation device is provided by means of which the entrance region can be supplied with fresh air and exhaust air can be discharged from the entrance area through the firing channel.
An adhesive composition comprising: (a) at least one aromatic epoxy resin; (b) an epoxy resin rubber adduct; (c) an amine curing agent; (d) an oil absorbent which comprises a mineral filler; (e) a corrosion inhibitor which comprises an inorganic salt which is substantially free of chromium; and (f) a urone based accelerator. (a) at least one aromatic epoxy resin; (b) an epoxy resin rubber adduct; (c) an amine curing agent; (d) an oil absorbent which comprises a mineral filler; (e) a corrosion inhibitor which comprises an inorganic salt which is substantially free of chromium; and (f) a urone based accelerator.
A light source identification system, the system comprising: a light source imaging device , comprising: a light sensor operable to image at least a portion of an environment in which the light source imaging device is present, wherein the environment comprises one or more light sources , and a transmitter operable to transmit image data resulting from the imaging by the light sensor ; and a processing device configured to receive the image data from the transmitter , the processing device comprising: a processor that is operable, in a calibration mode, to identify light sources from the received image data, to locate them within the environment and to generate a model of the light output of the identified light sources, wherein the model comprises a time-dependent light contribution of the identified light sources. a light source imaging device , comprising: a light sensor operable to image at least a portion of an environment in which the light source imaging device is present, wherein the environment comprises one or more light sources , and a transmitter operable to transmit image data resulting from the imaging by the light sensor ; and a light sensor operable to image at least a portion of an environment in which the light source imaging device is present, wherein the environment comprises one or more light sources , and a transmitter operable to transmit image data resulting from the imaging by the light sensor ; and a processing device configured to receive the image data from the transmitter , the processing device comprising: a processor that is operable, in a calibration mode, to identify light sources from the received image data, to locate them within the environment and to generate a model of the light output of the identified light sources, wherein the model comprises a time-dependent light contribution of the identified light sources.
A method of analyzing a neurological circuitry network comprising target cells having a microbial light-activated trans-membrane conductance regulator, the method comprising: delivering a targeted light, wherein the microbial light-activated trans-membrane conductance regulator causes cells of the target cell population to express light responsive to the targeted light; measuring nervous system responses to the targeted light delivery using functional magnetic resonance imaging (fMRI) to generate four dimensional optogenetic fMRI (ofMRI) data; gridding and performing a Fast Fourier Transform of the 4D ofMRI data to generate reconstructed images; identifying neural circuit activity locations based on measuring the nervous system responses to generate a map of the neurological circuitry network based on the reconstructed images; identifying timings of activities at the neural circuit activity locations of the neurological circuitry network based on measuring the nervous system responses based, at least in part, on a Fourier domain analysis of the reconstructed images; and generating a disease model based on the timings of activities and the map of the neurological circuitry network. measuring nervous system responses to the targeted light delivery using functional magnetic resonance imaging (fMRI) to generate four dimensional optogenetic fMRI (ofMRI) data; gridding and performing a Fast Fourier Transform of the 4D ofMRI data to generate reconstructed images; identifying neural circuit activity locations based on measuring the nervous system responses to generate a map of the neurological circuitry network based on the reconstructed images; identifying timings of activities at the neural circuit activity locations of the neurological circuitry network based on measuring the nervous system responses based, at least in part, on a Fourier domain analysis of the reconstructed images; and generating a disease model based on the timings of activities and the map of the neurological circuitry network.