mhurhangee/ep-ind-claims huggingface dataset:
A decoding system for reconstructing an n-channel audio signal, wherein the decoding system is adapted to receive a bitstream encoding an input signal segmented into time frames and representing the audio signal, in a given time frame, according to a coding regime selected from the group comprising: a) parametric coding where the input signal is an n-channel signal that contains m core channels padded with (n-m) neutral channels, and where the m core channels are used for spatialization using at least one mixing parameter (α); and b) discrete coding using n discretely encoded channels, the decoding system being operable to derive the audio signal either on the basis of said n discretely encoded channels or by spatial synthesis, the decoding system comprising: a downmix stage operable to output an m-channel downmix signal based on the input signal in accordance with a downmix specification, wherein n > m ≥ 1; and a spatial synthesis stage operable to output an n-channel representation of the audio signal based on said downmix signal and said at least one mixing parameter, wherein the downmix stage is adapted to be active in at least the first time frame in each episode of discretely coded time frames and in at least the first time frame after each episode of discretely coded time frames. a) parametric coding where the input signal is an n-channel signal that contains m core channels padded with (n-m) neutral channels, and where the m core channels are used for spatialization using at least one mixing parameter (α); and b) discrete coding using n discretely encoded channels, a downmix stage operable to output an m-channel downmix signal based on the input signal in accordance with a downmix specification, wherein n > m ≥ 1; and a spatial synthesis stage operable to output an n-channel representation of the audio signal based on said downmix signal and said at least one mixing parameter, wherein the downmix stage is adapted to be active in at least the first time frame in each episode of discretely coded time frames and in at least the first time frame after each episode of discretely coded time frames.
A method for molding a highly heat-resistant sound absorbing and insulating material, comprising: i) a releasing agent coating step of coating a releasing agent inside a hot die; ii) a hot compression molding step of fixing a shape of a sound absorbing material by installing a sound absorbing material comprising, based on the total weight of the sound absorbing material, 20-80 parts by weight of a fiber material having a limiting oxygen index of 25%-80% and a heat resistance temperature of 200-3000 °C and 20-80 parts by weight of a thermosetting binder resin having a heat resistance temperature of 200 °C or greater on the hot die coated with the releasing agent; and iii) a cold compression step of stabilizing the shape of the compressed sound absorbing material. i) a releasing agent coating step of coating a releasing agent inside a hot die; ii) a hot compression molding step of fixing a shape of a sound absorbing material by installing a sound absorbing material comprising, based on the total weight of the sound absorbing material, 20-80 parts by weight of a fiber material having a limiting oxygen index of 25%-80% and a heat resistance temperature of 200-3000 °C and 20-80 parts by weight of a thermosetting binder resin having a heat resistance temperature of 200 °C or greater on the hot die coated with the releasing agent; and iii) a cold compression step of stabilizing the shape of the compressed sound absorbing material.
A refrigerator comprising: a cabinet that forms a storage compartment; and a drawer provided inside the storage compartment and configured to be withdrawn, wherein the drawer includes: a drawer body forming a storage space; and a divider (200; 300) movably installed at the drawer body that divides the storage space into a first space to which cooling air is supplied and a second space which is indirectly cooled by the cooling air, wherein the first space and the second space are controlled at different temperatures from each other; a first rack provided at a front surface of the drawer; a second rack provided at a rear surface of the drawer, characterized in that the refrigerator further comprises: two pinions (261, 262) provided at the divider (200; 300) and being interlocked with the first rack or the second rack respectively; and a brake bar (250a, 250b) located between the two pinions and configured to interfere with the two pinions (261, 262) to prevent rotation of the two pinions (261, 262). a cabinet that forms a storage compartment; and a drawer provided inside the storage compartment and configured to be withdrawn, wherein the drawer includes: a drawer body forming a storage space; and a divider (200; 300) movably installed at the drawer body that divides the storage space into a first space to which cooling air is supplied and a second space which is indirectly cooled by the cooling air, wherein the first space and the second space are controlled at different temperatures from each other; a first rack provided at a front surface of the drawer; a second rack provided at a rear surface of the drawer, characterized in that the refrigerator further comprises: two pinions (261, 262) provided at the divider (200; 300) and being interlocked with the first rack or the second rack respectively; and a brake bar (250a, 250b) located between the two pinions and configured to interfere with the two pinions (261, 262) to prevent rotation of the two pinions (261, 262). a drawer body forming a storage space; and a divider (200; 300) movably installed at the drawer body that divides the storage space into a first space to which cooling air is supplied and a second space which is indirectly cooled by the cooling air, wherein the first space and the second space are controlled at different temperatures from each other; a first rack provided at a front surface of the drawer; a second rack provided at a rear surface of the drawer, characterized in that the refrigerator further comprises: two pinions (261, 262) provided at the divider (200; 300) and being interlocked with the first rack or the second rack respectively; and a brake bar (250a, 250b) located between the two pinions and configured to interfere with the two pinions (261, 262) to prevent rotation of the two pinions (261, 262).
A shift and hold conveying apparatus for removing oversize parcels, said apparatus comprising: a conveyor for conveying parcels including at least one low friction conveying surface having both a forward directional force and a lateral directional force, said conveyor including a plurality of driven skewed rollers having rotary axes skewed relative to a longitudinal direction of travel moving parcels forward and toward a first diverging sidewall; said first diverging sidewall extending outwardly along an inward side edge of said conveyor at a selected position for a selected length converging parcels toward the center of the conveyor against said lateral directional force and lateral movement; a second lateral sidewall extending along an inward side edge of said conveyor at a selected position for a selected length downstream from at least a portion of said first sidewall; an offset extending from said first sidewall toward said second sidewall for shifting parcels inwardly towards the second lateral sidewall; and a high friction conveying surface of a selected width extending along an outer edge of said conveyor opposing said second sidewall, said high friction conveying surface raised a selected height above the surface of said low friction conveying surface and in flow communication therewith, said raised conveying surface forming a tip-over threshold. a conveyor for conveying parcels including at least one low friction conveying surface having both a forward directional force and a lateral directional force, said conveyor including a plurality of driven skewed rollers having rotary axes skewed relative to a longitudinal direction of travel moving parcels forward and toward a first diverging sidewall; said first diverging sidewall extending outwardly along an inward side edge of said conveyor at a selected position for a selected length converging parcels toward the center of the conveyor against said lateral directional force and lateral movement; a second lateral sidewall extending along an inward side edge of said conveyor at a selected position for a selected length downstream from at least a portion of said first sidewall; an offset extending from said first sidewall toward said second sidewall for shifting parcels inwardly towards the second lateral sidewall; and a high friction conveying surface of a selected width extending along an outer edge of said conveyor opposing said second sidewall, said high friction conveying surface raised a selected height above the surface of said low friction conveying surface and in flow communication therewith, said raised conveying surface forming a tip-over threshold.
A system comprising: a teleoperational assembly including an operator control system and a plurality of manipulators configured for teleoperation by the operator control system, wherein a first manipulator of the plurality of manipulators is configured to control movement of a first medical instrument in a surgical environment and a second manipulator of the plurality of manipulators is configured to control movement of an imaging instrument; and a processing unit including one or more processors, wherein the processing unit is configured to: display an image of a field of view of the surgical environment captured by the imaging instrument; determine a position of a distal end portion of the first medical instrument in an image coordinate space; determine an initial position for a first badge associated with the distal end portion of the first medical instrument; determine a badge placement boundary for the image of the field of view by determining a viewable space boundary for the image of the field of view, the badge placement boundary being inside the image of the field of view; determine an inset boundary within the viewable space boundary based on a radius of the first badge; and adjust the first badge from the initial position to a display position within the badge placement boundary by determining an inset boundary, wherein the display position of the first badge is constrained to be within the inset boundary. display an image of a field of view of the surgical environment captured by the imaging instrument; determine a position of a distal end portion of the first medical instrument in an image coordinate space; determine an initial position for a first badge associated with the distal end portion of the first medical instrument; determine a badge placement boundary for the image of the field of view by determining a viewable space boundary for the image of the field of view, the badge placement boundary being inside the image of the field of view; determine an inset boundary within the viewable space boundary based on a radius of the first badge; and adjust the first badge from the initial position to a display position within the badge placement boundary by determining an inset boundary, wherein the display position of the first badge is constrained to be within the inset boundary.
Handle assembly for a vehicle door handle, the handle assembly comprising: - a bracket intended to be fixed in the vehicle door, - a handle external structure, configured to be disposed on one longitudinal side of the bracket and mobile relatively to the said bracket, the handle external structure comprising at least one external protrusion (21, 22), - a handle internal structure configured to be disposed on the other longitudinal side of the bracket, the handle internal structure comprising at least one internal protrusion (11, 12), wherein - the internal (11, 12) and external (21, 22) protrusions are configured to be inserted in one another through the bracket according to an insertion direction, and - the internal (11, 12) and external (21, 22) protrusions comprise complementary clip fastening means (13, 23) configured to fasten the handle external and internal structures to one another when the internal (11,12) and external (21, 22) protrusions are inserted in one another through the bracket; wherein one of the external or internal (11, 12) protrusion has a U-shaped portion for engaging the other of the external (21, 22) or internal protrusion, and the fastening means (13, 23) are configured to block relative movements of the handle external and internal structures in a direction extending from the base of the U-shaped portion to the open side of the U-shaped portion, and wherein the clip fastening means (23, 13) comprise an external protuberance with a maintaining surface substantially parallel to the insertion direction, and an internal protuberance with a supporting surface substantially parallel to the insertion direction. - a bracket intended to be fixed in the vehicle door, - a handle external structure, configured to be disposed on one longitudinal side of the bracket and mobile relatively to the said bracket, the handle external structure comprising at least one external protrusion (21, 22), - a handle internal structure configured to be disposed on the other longitudinal side of the bracket, the handle internal structure comprising at least one internal protrusion (11, 12), - the internal (11, 12) and external (21, 22) protrusions are configured to be inserted in one another through the bracket according to an insertion direction, and - the internal (11, 12) and external (21, 22) protrusions comprise complementary clip fastening means (13, 23) configured to fasten the handle external and internal structures to one another when the internal (11,12) and external (21, 22) protrusions are inserted in one another through the bracket;
Method for decreasing the risk of video data failing to be stored, said method comprising: periodically sending via a network connection a test message from a networked video camera to a Networked Storage Device, NSD, generating an NSD fail signal in the networked video camera if events following the sending of the test message indicates that the NSD is not operating properly, and sending, in response to the NSD fail signal, a fail message from the networked video camera for detection outside housing of networked video camera. periodically sending via a network connection a test message from a networked video camera to a Networked Storage Device, NSD, generating an NSD fail signal in the networked video camera if events following the sending of the test message indicates that the NSD is not operating properly, and sending, in response to the NSD fail signal, a fail message from the networked video camera for detection outside housing of networked video camera.
An ice protection system, comprising: a blade having a leading edge, the blade extending from an inboard side to an outboard side; a first heating element disposed proximate the inboard side along the leading edge, the first heating element configured to have a first resistive path and to provide heat; a second heating element disposed adjacent to the first heating element, the second heating element disposed distal to the inboard side, the second heating element configured to have a second resistive path and to provide heat; a second heater feed conductive element extending from the inboard side to the second heating element; and characterized by: a second heater return conductive element extending from the inboard side to the second heating element, the second heater feed conductive element and the second heater return conductive element each comprising a plurality of diagonal traces and a plurality of orthogonal traces extending from a first side to a second side, the plurality of diagonal traces configured to intersect the plurality of orthogonal traces, the second heater feed conductive element and the second heater return conductive element both configured for a conductive path and to provide little or no heat. a blade having a leading edge, the blade extending from an inboard side to an outboard side; a first heating element disposed proximate the inboard side along the leading edge, the first heating element configured to have a first resistive path and to provide heat; a second heating element disposed adjacent to the first heating element, the second heating element disposed distal to the inboard side, the second heating element configured to have a second resistive path and to provide heat; a second heater feed conductive element extending from the inboard side to the second heating element; and characterized by: a second heater return conductive element extending from the inboard side to the second heating element, the second heater feed conductive element and the second heater return conductive element each comprising a plurality of diagonal traces and a plurality of orthogonal traces extending from a first side to a second side, the plurality of diagonal traces configured to intersect the plurality of orthogonal traces, the second heater feed conductive element and the second heater return conductive element both configured for a conductive path and to provide little or no heat.
A method of operating a base station node comprising: using a precoder to transform information that is transmitted over a multiple-input, multiple output, MIMO, channel to a recipient device; receiving a multi-part feedback signal from the recipient device, that is trying to report the channel, the feedback signal representing a multi-part matrix structure related to channel state information for the channel, at least two different parts of the multi-part feedback signal being received with two respective different transmission granularities in time and/or frequency, wherein the different parts of the multi-part feedback signal correspond to different constituent matrices of the multi-part matrix structure, the multi-part matrix structure is a precoder matrix structure, the precoder is derived from the channel state information and the precoder matrix structure is obtained as a Kronecker product of two matrices comprising the multi-part matrix structure, wherein the precoder matrix structure comprises a polarization matrix and a beamforming vector; using the multi-part feedback signal at the base station node to affect precoding of further information transmitted over the channel to the recipient device, wherein: the base station node exploits reported channel state information for determining precoder matrices defining a transmission property. using a precoder to transform information that is transmitted over a multiple-input, multiple output, MIMO, channel to a recipient device; receiving a multi-part feedback signal from the recipient device, that is trying to report the channel, the feedback signal representing a multi-part matrix structure related to channel state information for the channel, at least two different parts of the multi-part feedback signal being received with two respective different transmission granularities in time and/or frequency, wherein the different parts of the multi-part feedback signal correspond to different constituent matrices of the multi-part matrix structure, the multi-part matrix structure is a precoder matrix structure, the precoder is derived from the channel state information and the precoder matrix structure is obtained as a Kronecker product of two matrices comprising the multi-part matrix structure, wherein the precoder matrix structure comprises a polarization matrix and a beamforming vector; using the multi-part feedback signal at the base station node to affect precoding of further information transmitted over the channel to the recipient device, wherein: the base station node exploits reported channel state information for determining precoder matrices defining a transmission property.
A combination of a cylinder and a piston ring, the combination comprising a cylinder of an internal combustion engine and a piston ring configured to slide on an inner peripheral surface of the cylinder, wherein the piston ring has an outer peripheral surface sliding on the inner peripheral surface of the cylinder, and the outer peripheral surface is formed of a substantially hydrogen-free amorphous carbon coating, a Vickers hardness Hd of the amorphous carbon coating and a Vickers hardness Hb of the inner peripheral surface of the cylinder satisfy Hd + Hb ≤ 2500 HV, and characterized in that a ratio ID/IG of a peak intensity of a D band to a peak intensity of a G band in a Raman spectrum obtained by measuring the amorphous carbon coating by Raman spectroscopy is 0.60 or more and 1.33 or less. the piston ring has an outer peripheral surface sliding on the inner peripheral surface of the cylinder, and the outer peripheral surface is formed of a substantially hydrogen-free amorphous carbon coating, a Vickers hardness Hd of the amorphous carbon coating and a Vickers hardness Hb of the inner peripheral surface of the cylinder satisfy Hd + Hb ≤ 2500 HV, and characterized in that a ratio ID/IG of a peak intensity of a D band to a peak intensity of a G band in a Raman spectrum obtained by measuring the amorphous carbon coating by Raman spectroscopy is 0.60 or more and 1.33 or less.
Method for processing a recipe by means of a set of appliances of a user, which comprises a plurality of kitchen appliances, wherein the recipe comprises a large number of process steps as well as transition conditions that are associated with each of these, and wherein the method comprises the following steps: - determining a current process step of the recipe and a transition condition that is associated therewith; - outputting an item of information depending on the current process step; - scanning a parameter of a first kitchen appliance of the set of appliances, the value of which controls the satisfaction of said transition condition; and - automatically setting a subsequent process step of the recipe to be the current process step if said transition condition has been satisfied, wherein the following processing step relates to a second kitchen appliance of the set of appliances, wherein the first and second kitchen appliance are different, characterised in that - the transition condition comprises an alteration to the consistency of an ingredient in a container by the influence of mechanical processing, - the parameter relates to vibrations of the container and - based on a frequency distribution of the vibrations it is determined whether the transition condition has been satisfied. - determining a current process step of the recipe and a transition condition that is associated therewith; - outputting an item of information depending on the current process step; - scanning a parameter of a first kitchen appliance of the set of appliances, the value of which controls the satisfaction of said transition condition; and - automatically setting a subsequent process step of the recipe to be the current process step if said transition condition has been satisfied, wherein the following processing step relates to a second kitchen appliance of the set of appliances, wherein the first and second kitchen appliance are different, characterised in that - the transition condition comprises an alteration to the consistency of an ingredient in a container by the influence of mechanical processing, - the parameter relates to vibrations of the container and - based on a frequency distribution of the vibrations it is determined whether the transition condition has been satisfied.