mhurhangee/ep-ind-claims huggingface dataset:
An assembly for telecommunications, comprising: a carrier having a frame configured to receive at least one telecommunication module, the carrier having a back frame and at least one side frame portion (123, 124), wherein a telecommunication module is pivotably mounted to the carrier; wherein the telecommunication module includes at least one row of contacts, wherein each contact is configured to be accessed from at least a first side of the module; and a bundled wire guide having at least one channel (154a, 154b, 154c, 154d) configured to receive and guide at least a first wire bundle, the at least one channel extending from the back frame to a hinge portion of the telecommunication module, the assembly characterized in that each channel of the bundled wire guide further includes a deflection tongue formed at the exit end of each channel and extending outward from the hinge. a carrier having a frame configured to receive at least one telecommunication module, the carrier having a back frame and at least one side frame portion (123, 124), wherein a telecommunication module is pivotably mounted to the carrier; wherein the telecommunication module includes at least one row of contacts, wherein each contact is configured to be accessed from at least a first side of the module; and a bundled wire guide having at least one channel (154a, 154b, 154c, 154d) configured to receive and guide at least a first wire bundle, the at least one channel extending from the back frame to a hinge portion of the telecommunication module, the assembly characterized in that each channel of the bundled wire guide further includes a deflection tongue formed at the exit end of each channel and extending outward from the hinge.
A refrigerator comprising: a first storage compartment provided at an upper portion of a cabinet; a second storage compartment provided below the first storage compartment; a partition wall for partitioning off an internal space of the cabinet into the first storage compartment and the second storage compartment and having a horizontal top surface; an accommodating unit defining an accommodating space and an opening, the accommodating space being recessed downward from the top surface of the partition wall and the opening being located at an upper portion of the accommodating unit and being configured to introduce food therethrough; an accommodating unit door movable parallel with the top surface of the partition wall, thereby selectively opening/closing the opening; at least one pair of rollers disposed underneath the accommodating unit door at opposite sides thereof, allowing the accommodating unit door to slidingly move with respect to the partition wall; and a pair of upper ribs provided at opposite sides of the accommodating unit door, to restrict splaying of the accommodating unit door, characterized in that the accommodating unit door has a rectangular plate shape including straight sides, round corners and transition portions between the straight sides and the round corners, wherein the length of the pair of upper ribs is shorter than a side length of the accommodating unit door, wherein the pair of upper ribs is configured to cover the transition portions based on the accommodating unit door closing the opening. a first storage compartment provided at an upper portion of a cabinet; a second storage compartment provided below the first storage compartment; a partition wall for partitioning off an internal space of the cabinet into the first storage compartment and the second storage compartment and having a horizontal top surface; an accommodating unit defining an accommodating space and an opening, the accommodating space being recessed downward from the top surface of the partition wall and the opening being located at an upper portion of the accommodating unit and being configured to introduce food therethrough; an accommodating unit door movable parallel with the top surface of the partition wall, thereby selectively opening/closing the opening; at least one pair of rollers disposed underneath the accommodating unit door at opposite sides thereof, allowing the accommodating unit door to slidingly move with respect to the partition wall; and a pair of upper ribs provided at opposite sides of the accommodating unit door, to restrict splaying of the accommodating unit door, characterized in that the accommodating unit door has a rectangular plate shape including straight sides, round corners and transition portions between the straight sides and the round corners, wherein the length of the pair of upper ribs is shorter than a side length of the accommodating unit door, wherein the pair of upper ribs is configured to cover the transition portions based on the accommodating unit door closing the opening.
Method for setting up a second communication according to a second modality on the basis of a first communication set up, according to a first modality, between a communication terminal and an interactive server, the interactive server being able to react, according to a predefined logic, to received commands originating from the terminal, the logic being predefined by a set of states and by conditions of transitions between said states, the method comprising the following steps carried out by the server: - obtainment of a command to set up a second communication according to a second modality, - storage of a context representative of the interactions that have taken place between the terminal and the interactive server in the course of the first communication and of a public identity, the stored context comprising at least one state history containing the states successively occupied by the interactive server in the course of the first communication, - set-up of a second communication according to a second modality with a recipient terminal designated by the stored public identity, and - configuration of the second communication by transmission, to the recipient terminal, via the second communication and in a form suitable for the second modality, of at least one portion of the stored context. - obtainment of a command to set up a second communication according to a second modality, - storage of a context representative of the interactions that have taken place between the terminal and the interactive server in the course of the first communication and of a public identity, the stored context comprising at least one state history containing the states successively occupied by the interactive server in the course of the first communication, - set-up of a second communication according to a second modality with a recipient terminal designated by the stored public identity, and - configuration of the second communication by transmission, to the recipient terminal, via the second communication and in a form suitable for the second modality, of at least one portion of the stored context.
Method for providing and preparing natural fibers, the method comprising the following steps: 1) providing a biomass containing natural fibers and having a dry matter content of at most 50 % by weight; 2) adding water to produce a suspension containing the biomass; 3) dissolving the natural fibers out of the biomass; 4) separating the liquid out from the suspension; 5) drying the natural fibers; wherein the drying of the natural fibers comprises pre-drying and post-drying, characterized in that the pre-drying comprises drying in a belt dryer and in that only part of the dried natural fibers is removed from the belt dryer while the remaining part is supplied back to the belt dryer. 1) providing a biomass containing natural fibers and having a dry matter content of at most 50 % by weight; 2) adding water to produce a suspension containing the biomass; 3) dissolving the natural fibers out of the biomass; 4) separating the liquid out from the suspension; 5) drying the natural fibers;
A method of object detection in a scene represented by depth data of a range detection sensor and image data of a camera, the method comprising: projecting the depth data onto the image data to generate projected depth data, wherein projecting the depth data onto the image data comprises generating a transformation matrix comprising a rotation and translation portion for transforming a coordinate system of the depth data to a coordinate system of the image data, wherein generating the transformation matrix comprises determining the transformation matrix T maximizing the expression S T = ∑ ƒ = 1 N ∑ i X i ƒ T ⋅ E i ƒ, wherein N denotes a number of images, i denotes the i -th pixel in a depth data point cloud X i ƒ, and E i ƒ denotes the i -th pixel in an edge image E derived from the image data; encoding the projected depth data to multi-channel information to generate encoded projected depth data; and feeding the image data and the encoded projected depth data into one or more convolutional neural networks configured to detect or classify objects in the scene using the image data and the encoded projected depth data. projecting the depth data onto the image data to generate projected depth data, wherein projecting the depth data onto the image data comprises generating a transformation matrix comprising a rotation and translation portion for transforming a coordinate system of the depth data to a coordinate system of the image data, wherein generating the transformation matrix comprises determining the transformation matrix T maximizing the expression S T = ∑ ƒ = 1 N ∑ i X i ƒ T ⋅ E i ƒ, wherein N denotes a number of images, i denotes the i -th pixel in a depth data point cloud X i ƒ, and E i ƒ denotes the i -th pixel in an edge image E derived from the image data; encoding the projected depth data to multi-channel information to generate encoded projected depth data; and feeding the image data and the encoded projected depth data into one or more convolutional neural networks configured to detect or classify objects in the scene using the image data and the encoded projected depth data.
A radiation detection element comprising a semiconductor part generating an electric charge by entrance of radiation, the semiconductor part being provided with a signal output electrode outputting a signal caused by the electric charge, a potential gradient generation electrode for applying voltage such that a potential gradient in which a potential varies toward the signal output electrode is generated inside the semiconductor part, and a collection electrode for collecting electric charges not derived from radiation, further comprising: an insulating film provided on a side of the semiconductor part where the signal output electrode is located; and characterized by a conductive layer provided between the insulating film and a part of the semiconductor part and extending in a depth direction with respect to the semiconductor part,, and having electric resistance lower than electric resistance of the semiconductor part and higher than electric resistance of the collection electrode, wherein the conductive layer is located at a position where a distance from the signal output electrode is equal to or longer than a distance between the collection electrode and the signal output electrode. an insulating film provided on a side of the semiconductor part where the signal output electrode is located; and characterized by a conductive layer provided between the insulating film and a part of the semiconductor part and extending in a depth direction with respect to the semiconductor part,, and having electric resistance lower than electric resistance of the semiconductor part and higher than electric resistance of the collection electrode, wherein the conductive layer is located at a position where a distance from the signal output electrode is equal to or longer than a distance between the collection electrode and the signal output electrode.
A method (1400, 1500, 1600) of wireless communication, comprising: determining a transmission power priority for an access channel relative to a second channel, wherein the access channel is a physical random access channel, PRACH; and transmitting (1408, 1506, 1608) the access channel and the second channel on at least one component carrier of a plurality of component carriers simultaneously, each of the access channel and the second channel being transmitted at a transmission power determined based on the priority, wherein the plurality of component carriers includes a primary component carrier and at least one secondary component carrier; and wherein the determining the transmission power priority includes assigning the PRACH a first priority and the second channel a second priority when the PRACH indicates an uplink scheduling request on the primary component carrier and the second channel carries sounding reference signals, SRS, on the primary component carrier or on a secondary component carrier of the at least one secondary component carrier; and reducing the transmission power for transmitting the PRACH during one orthogonal frequency division multiplexing (OFDM) symbol in which the second channel is transmitted; and further including: allocating a requisite transmission power to the channel with a higher priority; and allocating a remaining transmission power to the channel with a lower priority. determining a transmission power priority for an access channel relative to a second channel, wherein the access channel is a physical random access channel, PRACH; and transmitting (1408, 1506, 1608) the access channel and the second channel on at least one component carrier of a plurality of component carriers simultaneously, each of the access channel and the second channel being transmitted at a transmission power determined based on the priority, wherein the plurality of component carriers includes a primary component carrier and at least one secondary component carrier; and wherein the determining the transmission power priority includes assigning the PRACH a first priority and the second channel a second priority when the PRACH indicates an uplink scheduling request on the primary component carrier and the second channel carries sounding reference signals, SRS, on the primary component carrier or on a secondary component carrier of the at least one secondary component carrier; and reducing the transmission power for transmitting the PRACH during one orthogonal frequency division multiplexing (OFDM) symbol in which the second channel is transmitted; and further including: allocating a requisite transmission power to the channel with a higher priority; and allocating a remaining transmission power to the channel with a lower priority. allocating a requisite transmission power to the channel with a higher priority; and allocating a remaining transmission power to the channel with a lower priority.
A method for wireless communication at a relay node, comprising: exchanging, using a first mobile terminal function of the relay node, an identifier of the relay node with a first network management function via a first backhaul link to a first parent node; transmitting, using a second mobile terminal function of the relay node, the same identifier of the relay node to a second network management function via a second backhaul link to a second parent node; and receiving a backhaul link configuration for the second mobile terminal function based at least in part on the transmission of the identifier of the relay node to the first network management function via the first backhaul link and the transmission of the same identifier of the relay node to the second network management function via the second backhaul link. exchanging, using a first mobile terminal function of the relay node, an identifier of the relay node with a first network management function via a first backhaul link to a first parent node; transmitting, using a second mobile terminal function of the relay node, the same identifier of the relay node to a second network management function via a second backhaul link to a second parent node; and receiving a backhaul link configuration for the second mobile terminal function based at least in part on the transmission of the identifier of the relay node to the first network management function via the first backhaul link and the transmission of the same identifier of the relay node to the second network management function via the second backhaul link.
A method of seismic surveying, comprising: placing a seismic sensor system at least partially into an earth surface; actuating a seismic source to transmit impulses into an earth subsurface; receiving, by the seismic sensor system, translational data in a first direction measured by particle motion sensors (102A, 102B) contained in an elongated housing of a seismic sensor device provided at the earth surface, the particle motion sensors spaced apart along a second, different direction along a longitudinal axis of the elongated housing, and receiving translational data in a third direction measured by additional particle motion sensors in the housing, the translational data in the first and third directions corresponding at least partially to the impulses; and recording the translational data in the first direction and the translational data in the third direction, wherein a gradient of the translational data in the first direction with respect to the second direction is useable to compute rotation data around the third direction, and wherein a gradient of the translational data in the third direction with respect to the second direction is useable to compute rotation data around the first direction. placing a seismic sensor system at least partially into an earth surface; actuating a seismic source to transmit impulses into an earth subsurface; receiving, by the seismic sensor system, translational data in a first direction measured by particle motion sensors (102A, 102B) contained in an elongated housing of a seismic sensor device provided at the earth surface, the particle motion sensors spaced apart along a second, different direction along a longitudinal axis of the elongated housing, and receiving translational data in a third direction measured by additional particle motion sensors in the housing, the translational data in the first and third directions corresponding at least partially to the impulses; and recording the translational data in the first direction and the translational data in the third direction, wherein a gradient of the translational data in the first direction with respect to the second direction is useable to compute rotation data around the third direction, and wherein a gradient of the translational data in the third direction with respect to the second direction is useable to compute rotation data around the first direction.
A method of producing a capsular polysaccharide having a pneumococcal serotype, the method comprising: (a) cultivating bacterial cells that produce a pneumococcal serotype while maintaining pH of a culture broth in the range of 7.0 to 9.4; (b) terminating the cultivating of step (a) at a time between when the absorbance of the culture broth remains constant and when the absorbance begins to decrease; (c) performing additional cultivating of the culture broth of step (b) without pH adjustment until the pH of the culture broth reaches pH of 5.5 or lower; (d) adding a lysing agent to the culture broth obtained from step (c) to lyse cells, precipitating proteins, and removing the precipitated proteins and cell debris to obtain a clarified cell lysate; and (e) isolating and purifying the capsular polysaccharide from the lysate obtained from step (d), wherein a pH adjuster for protein precipitation is not used. (a) cultivating bacterial cells that produce a pneumococcal serotype while maintaining pH of a culture broth in the range of 7.0 to 9.4; (b) terminating the cultivating of step (a) at a time between when the absorbance of the culture broth remains constant and when the absorbance begins to decrease; (c) performing additional cultivating of the culture broth of step (b) without pH adjustment until the pH of the culture broth reaches pH of 5.5 or lower; (d) adding a lysing agent to the culture broth obtained from step (c) to lyse cells, precipitating proteins, and removing the precipitated proteins and cell debris to obtain a clarified cell lysate; and (e) isolating and purifying the capsular polysaccharide from the lysate obtained from step (d), wherein a pH adjuster for protein precipitation is not used.
A method for detecting DNA methylation within genomic DNA having a sequence comprised in SEQ ID NO: 11 and/or 16, and/or within genomic DNA having a sequence comprised in SEQ ID NO: 36, from a sample comprising cell-free DNA from blood or a sample derived therefrom of a subject, wherein the subject has an increased risk for or is suspected of having a cancer selected from the group consisting of stomach, liver, colon, ovary, esophagus, bladder and prostate cancer when detecting DNA methylation within genomic DNA having a sequence comprised in SEQ ID NO: 11 and/or 16, and/or from the group consisting of lung, colon, breast, stomach and esophagus cancer when detecting DNA methylation within genomic DNA having a sequence comprised in SEQ ID NO: 36.
Compound according to formula I: wherein: • each R1-R10 may individually be H, a halogen, an alkoxy moiety, a siloxy moiety, a nitrogen-containing moiety, an alkyl moiety, an aryl moiety, or an aralkyl moiety, wherein each R1-R10 comprises ≤ 10 carbon atoms, wherein each of R1-R10 may form a cyclic moiety with an adjacent R1-R10 moiety; • Y is O or N-R11, wherein R11 is an alkyl, cycloalkyl, aryl or aralkyl moiety comprising 1-12 carbon atoms; • M is Ti, Zr or Hf, preferably Ti; • X is • a sigma-bonded ligand, for example: (i) a halogen, (ii) an amine, or (iii) a moiety wherein each X may contain 1 to 10 carbon atoms, selected from an alkyl moiety, an aralkyl moiety, an alkoxy moiety, and an aryloxy moiety; or • a diene, for example a butadiene moiety or an isoprene moiety; • z is the number of ligands X that are bonded to M. • each R1-R10 may individually be H, a halogen, an alkoxy moiety, a siloxy moiety, a nitrogen-containing moiety, an alkyl moiety, an aryl moiety, or an aralkyl moiety, wherein each R1-R10 comprises ≤ 10 carbon atoms, wherein each of R1-R10 may form a cyclic moiety with an adjacent R1-R10 moiety; • Y is O or N-R11, wherein R11 is an alkyl, cycloalkyl, aryl or aralkyl moiety comprising 1-12 carbon atoms; • M is Ti, Zr or Hf, preferably Ti; • X is • a sigma-bonded ligand, for example: (i) a halogen, (ii) an amine, or (iii) a moiety wherein each X may contain 1 to 10 carbon atoms, selected from an alkyl moiety, an aralkyl moiety, an alkoxy moiety, and an aryloxy moiety; or • a diene, for example a butadiene moiety or an isoprene moiety; • a sigma-bonded ligand, for example: (i) a halogen, (ii) an amine, or (iii) a moiety wherein each X may contain 1 to 10 carbon atoms, selected from an alkyl moiety, an aralkyl moiety, an alkoxy moiety, and an aryloxy moiety; or • a diene, for example a butadiene moiety or an isoprene moiety; • z is the number of ligands X that are bonded to M.