mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining at least one characteristic for optimizing the wear position of a pair of spectacles on the face of a wearer , said optimizing characteristic being a geometrico-morphological (EG, ED, HD, HG) characteristic, a head postural characteristic (α) or a behavioral characteristic, said pair of spectacles comprising a frame and two lenses , comprising steps of: a) illuminating at least part of the head of the wearer using at least one infrared light source ; b) acquiring, via an infrared image sensor , an image of the head of the wearer illuminated by the infrared light source , in which image the pair of spectacles and the eyes of the wearer appear; c) locating, in the image acquired in step b), reflections of the infrared light source reflected by the two lenses of the pair of spectacles and at least one corneal reflection of the infrared light source reflected by one of the two eyes of the wearer ; characterized by a step : d) of deducing by a processing unit said geometrico-morphological (EG, ED, HD, HG), postural (α) or behavioral characteristic depending on the distances separating an observable axis A3 of the frame from the centers of the reflections and said corneal reflection in said image . a) illuminating at least part of the head of the wearer using at least one infrared light source ; b) acquiring, via an infrared image sensor , an image of the head of the wearer illuminated by the infrared light source , in which image the pair of spectacles and the eyes of the wearer appear; c) locating, in the image acquired in step b), reflections of the infrared light source reflected by the two lenses of the pair of spectacles and at least one corneal reflection of the infrared light source reflected by one of the two eyes of the wearer ;
Device for treating a container with a treatment fluid, preferably in a beverage filling plant, wherein the device has: at least one treatment member with a switchable treatment valve , wherein the at least one treatment member is configured to treat the container with the treatment fluid by opening the treatment valve and to end the treatment by closing the treatment valve ; at least one motion sensor configured to detect a movement of the treatment member or of a component that is mechanically coupled to the treatment member during switching of the treatment valve ; and an electronic evaluation unit coupled in a communicating manner to the at least one motion sensor , and configured to draw conclusions about the switching behaviour of the treatment valve by processing the data that are detected by the motion sensor . at least one treatment member with a switchable treatment valve , wherein the at least one treatment member is configured to treat the container with the treatment fluid by opening the treatment valve and to end the treatment by closing the treatment valve ; at least one motion sensor configured to detect a movement of the treatment member or of a component that is mechanically coupled to the treatment member during switching of the treatment valve ; and an electronic evaluation unit coupled in a communicating manner to the at least one motion sensor , and configured to draw conclusions about the switching behaviour of the treatment valve by processing the data that are detected by the motion sensor .
A method of tracking a target object, comprising: imaging a scene in a first multi-dimensional color space using an imaging device, the scene including the target object and a background; selecting representative color information in the first multi-dimensional color space for each of the target object and the background; determining a transform between the first multi-dimensional color space and a second multi-dimensional color space, wherein the second multi-dimensional color space is selected based on a contrast between the representative color information of the target object and the representative color information of the background along a first dimensional axis of the second multi-dimensional color space being greater than a contrast between the representative color information of the target object and the representative color information of the background along a first dimensional axis of the first multi-dimensional color space; and applying the transform to convert a plurality of pixels in the imaged scene to the second multi-dimensional color space, wherein the transform is a rotational transform of the first color space. imaging a scene in a first multi-dimensional color space using an imaging device, the scene including the target object and a background; selecting representative color information in the first multi-dimensional color space for each of the target object and the background; determining a transform between the first multi-dimensional color space and a second multi-dimensional color space, wherein the second multi-dimensional color space is selected based on a contrast between the representative color information of the target object and the representative color information of the background along a first dimensional axis of the second multi-dimensional color space being greater than a contrast between the representative color information of the target object and the representative color information of the background along a first dimensional axis of the first multi-dimensional color space; and applying the transform to convert a plurality of pixels in the imaged scene to the second multi-dimensional color space, wherein the transform is a rotational transform of the first color space.
A device for implementing networking functions in an information centric network, ICN, the device comprising: a transceiver; a storage element; and a processor coupled to the storage element and the transceiver, the processor, storage element, and transceiver configured to: receive a generic attribute registration protocol multicast registration protocol, GMRP, request, wherein the request contains information about an internet protocol, IP , multicast address; receive an IP multicast packet associated with the IP multicast address; search a first database in the storage element for information associated with the GMRP request; on a condition that the search finds no information associated with the GMRP request, create an entry of information associated with the GMRP request in the first database, subscribe to a control channel associated with the IP multicast address, and insert an empty set of node identifiers , NIDs, in the created entry; encapsulate the IP multicast packet in an ICN packet; and publish, to a data channel associated with the IP multicast address, the ICN packet over the ICN to a receiving network access point, NAP . a transceiver; a storage element; and a processor coupled to the storage element and the transceiver, the processor, storage element, and transceiver configured to: receive a generic attribute registration protocol multicast registration protocol, GMRP, request, wherein the request contains information about an internet protocol, IP , multicast address; receive an IP multicast packet associated with the IP multicast address; search a first database in the storage element for information associated with the GMRP request; on a condition that the search finds no information associated with the GMRP request, create an entry of information associated with the GMRP request in the first database, subscribe to a control channel associated with the IP multicast address, and insert an empty set of node identifiers , NIDs, in the created entry; encapsulate the IP multicast packet in an ICN packet; and publish, to a data channel associated with the IP multicast address, the ICN packet over the ICN to a receiving network access point, NAP . receive a generic attribute registration protocol multicast registration protocol, GMRP, request, wherein the request contains information about an internet protocol, IP , multicast address; receive an IP multicast packet associated with the IP multicast address; search a first database in the storage element for information associated with the GMRP request; on a condition that the search finds no information associated with the GMRP request, create an entry of information associated with the GMRP request in the first database, subscribe to a control channel associated with the IP multicast address, and insert an empty set of node identifiers , NIDs, in the created entry; encapsulate the IP multicast packet in an ICN packet; and publish, to a data channel associated with the IP multicast address, the ICN packet over the ICN to a receiving network access point, NAP .
A take-off arm for a bale opener for taking off fiber flocks from fiber bales , having a housing , at least one take-off unit having an axial length , wherein the take-off unit is designed as a detaching roller having take-off teeth and a pressing element , wherein the pressing element , wherein the pressing element is mounted on the take-off arm in such a way that the pressing element contacts the fiber bales when the take-off arm is lowered onto the fiber bales , characterized in that the pressing element is designed as a grid having hold-down plates or as a guide plate or as at least one pressing roller and in that the pressing element is connected to the housing via load cells .
An electronic device, comprising: a housing formed of an aluminum clad sheet which is anodizable, the aluminum clad sheet comprising: a base material including a 7xxx-series aluminum alloy; and a coat material including a 6xxx-series aluminum alloy or a 1xxx-series aluminum alloy disposed on one or both front and back surfaces of the base material, wherein the 7xxx-series aluminum alloy includes 4.0% to 8.0% of zinc (Zn) relative to a total weight of the aluminum clad sheet, 1.0% to 3.0 % of magnesium (Mg) relative to the total weight of the aluminum clad sheet, aluminum (Al), and at least one impurity. a base material including a 7xxx-series aluminum alloy; and a coat material including a 6xxx-series aluminum alloy or a 1xxx-series aluminum alloy disposed on one or both front and back surfaces of the base material, wherein the 7xxx-series aluminum alloy includes 4.0% to 8.0% of zinc (Zn) relative to a total weight of the aluminum clad sheet, 1.0% to 3.0 % of magnesium (Mg) relative to the total weight of the aluminum clad sheet, aluminum (Al), and at least one impurity.
Cyclone separator for separating solids and/or liquids from a process stream, comprising: a process chamber which is round in cross-section and is formed by at least one circumferential wall and a cover ; an inlet port penetrating the circumferential wall for introducing the process stream into the process chamber in the circumferential direction (U) of the process chamber ; an outlet port penetrating the cover for leading the process stream out of the process chamber in the axial direction (A) of the process chamber ; an immersion tube extending from the outlet port in the axial direction (A) into the process chamber ; and a guide means (11.1, 11.2, 11.3, 11.4) extending in the center of the process chamber in the axial direction (A) and engaging in the immersion tube ; characterized in that the guide means (11.1, 11.2, 11.3, 11.4) is formed variable in cross-section over at least a part of its axial extension. a process chamber which is round in cross-section and is formed by at least one circumferential wall and a cover ; an inlet port penetrating the circumferential wall for introducing the process stream into the process chamber in the circumferential direction (U) of the process chamber ; an outlet port penetrating the cover for leading the process stream out of the process chamber in the axial direction (A) of the process chamber ; an immersion tube extending from the outlet port in the axial direction (A) into the process chamber ; and a guide means (11.1, 11.2, 11.3, 11.4) extending in the center of the process chamber in the axial direction (A) and engaging in the immersion tube ; characterized in that the guide means (11.1, 11.2, 11.3, 11.4) is formed variable in cross-section over at least a part of its axial extension.
A method for accessing an asset associated with a plurality of index points, the method comprising: receiving a user selection of one of the plurality of index points associated with the asset, wherein each index point represents a viewing position within the asset; accessing the asset at the viewing position associated with the selected index point; generating for display the asset at the viewing position associated with the selected index point after accessing the asset; updating the viewing position associated with the selected index point to reflect the user's viewing progress within the asset; caching a portion of video of the asset in response to updating the viewing position, the portion of video cached being based on the updated viewing position; and presenting the cached portion of video simultaneously with a listing for the selected index point. receiving a user selection of one of the plurality of index points associated with the asset, wherein each index point represents a viewing position within the asset; accessing the asset at the viewing position associated with the selected index point; generating for display the asset at the viewing position associated with the selected index point after accessing the asset; updating the viewing position associated with the selected index point to reflect the user's viewing progress within the asset; caching a portion of video of the asset in response to updating the viewing position, the portion of video cached being based on the updated viewing position; and presenting the cached portion of video simultaneously with a listing for the selected index point.
An array substrate, comprising a base substrate and a gate metal layer, a gate insulating layer , an active layer , a source-drain electrode metal layer, a passivation layer and a common electrode layer which are sequentially formed on the base substrate, as well as a pixel electrode layer which is positioned either between the active layer and the source-drain electrode metal layer, or between the source-drain electrode metal layer and the passivation layer ; the gate metal layer including a gate electrode and a common electrode line ; wherein either the pixel electrode layer, or the source-drain electrode metal layer comprises a connecting electrode , the connecting electrode is electrically connected with the common electrode line through a first via hole in the gate insulating layer , and the connecting electrode is electrically connected with a common electrode of the common electrode layer through a second via hole in the passivation layer ; characterized in that vertical projections of the first via hole and the second via hole on the base substrate are mutually staggered, a position of the first via hole corresponds to that of the common electrode line , a position of the second via hole corresponds to that of the common electrode , and the vertical projections of the first via hole and the second via hole on the base substrate fall within a scope of a vertical projection of the connecting electrode on the base substrate .
A gear shift operation device (H) for a vehicle to which a multiple-stage automatic transmission (AT) is mounted, the gear shift operation device (H) comprising: a control lever configured to be manually operated in a range switchable mode, whereby a range position is switched at least between a D-range where automatic transmission (AT) is performed and an R-range, and manually operated in a manual transmission mode, whereby a gear change is performed, wherein an operation reaction force when the control lever is manually operated is set larger when the gear change is performed in the manual transmission mode than when the range position is switched in the range switchable mode, and wherein the control lever is of a momentary type in which the control lever is automatically returned to the neutral return position of the manual transmission mode after a gear change is requested in the manual transmission mode, characterized in that the control lever is of a momentary type in which the control lever is automatically returned to the neutral return position of the range switchable mode after the range position is switched in the range switchable mode. a control lever configured to be manually operated in a range switchable mode, whereby a range position is switched at least between a D-range where automatic transmission (AT) is performed and an R-range, and manually operated in a manual transmission mode, whereby a gear change is performed, wherein an operation reaction force when the control lever is manually operated is set larger when the gear change is performed in the manual transmission mode than when the range position is switched in the range switchable mode, and wherein the control lever is of a momentary type in which the control lever is automatically returned to the neutral return position of the manual transmission mode after a gear change is requested in the manual transmission mode, characterized in that the control lever is of a momentary type in which the control lever is automatically returned to the neutral return position of the range switchable mode after the range position is switched in the range switchable mode.
Outdoor energy-storage device of a system for air conditioning interior rooms of a building , wherein the outdoor energy-storage device can be arranged outside the building , can be partially sunken in the ground and comprises - an energy store for energy transmission and energy storage, having a liquid reservoir , a water heat exchanger in the liquid reservoir and an air heat exchanger above the liquid reservoir , - a heat pump , which is coupled to the water heat exchanger and the air heat exchanger , - an exhaust-air connection for exhaust air from the building , which connection is coupled to the energy store , - characterized in that the exhaust-air connection is also coupled to the heat pump , so that the exhaust air flowing in through the exhaust-air connection adjusts the temperature of the heat pump , at least in regions, before the exhaust air flows into the energy store , wherein the heat pump is designed as at least one stackable functional module , and the outdoor energy-storage device comprises at least one further stackable functional module which is designed to control heating, cooling and/or ventilation in the system, and the functional modules are arranged so that the exhaust air flows between the functional modules to the energy store and adjusts the temperature of the functional modules . - an energy store for energy transmission and energy storage, having a liquid reservoir , a water heat exchanger in the liquid reservoir and an air heat exchanger above the liquid reservoir , - a heat pump , which is coupled to the water heat exchanger and the air heat exchanger , - an exhaust-air connection for exhaust air from the building , which connection is coupled to the energy store , - characterized in that the exhaust-air connection is also coupled to the heat pump , so that the exhaust air flowing in through the exhaust-air connection adjusts the temperature of the heat pump , at least in regions, before the exhaust air flows into the energy store ,
A computer-implemented method for acoustic echo cancellation comprising: receiving , at one or more microphones, an audio reference signal from an audio speaker; filtering the audio reference signal using one or more adaptive audio filters ; analyzing a level of signal energy of the audio reference signal with regard to time, frequency and audio channel to identify at least one maximum error contribution point, wherein the analyzing a level of signal energy of the audio reference signal comprises using an update equation for an adaptive filter h(k), and updating the one or more adaptive audio filters based upon, at least in part, the analyzed audio reference signal, characterized in that: the at least one maximum error contribution point includes at least one filter tap corresponding to a largest level of signal energy with regard to time, frequency and audio channel, and the update equation is: h _ k + 1 = h _ k + Q k ⋅ β ⋅ e k ⋅ X _ k ‖ X _ k ‖ 2 , wherein k is a discrete time index, X(k) is a vector of the last input reference samples, Q (k) is defined as Q ( k ) := diag[ q ( k )] and q( k ) indicates a largest input samples and is defined as q l k = { 1 , x l k ∈ L maxima of X _ k 0 , otherwise , l = 0,1 , ... , L − 1 , β is a stepsize, and e(k) is an error signal. receiving , at one or more microphones, an audio reference signal from an audio speaker; filtering the audio reference signal using one or more adaptive audio filters ; analyzing a level of signal energy of the audio reference signal with regard to time, frequency and audio channel to identify at least one maximum error contribution point, wherein the analyzing a level of signal energy of the audio reference signal comprises using an update equation for an adaptive filter h(k), and updating the one or more adaptive audio filters based upon, at least in part, the analyzed audio reference signal, characterized in that: the at least one maximum error contribution point includes at least one filter tap corresponding to a largest level of signal energy with regard to time, frequency and audio channel, and the update equation is: h _ k + 1 = h _ k + Q k ⋅ β ⋅ e k ⋅ X _ k ‖ X _ k ‖ 2 , wherein k is a discrete time index, X(k) is a vector of the last input reference samples, Q (k) is defined as Q ( k ) := diag[ q ( k )] and q( k ) indicates a largest input samples and is defined as q l k = { 1 , x l k ∈ L maxima of X _ k 0 , otherwise , l = 0,1 , ... , L − 1 , β is a stepsize, and e(k) is an error signal. the at least one maximum error contribution point includes at least one filter tap corresponding to a largest level of signal energy with regard to time, frequency and audio channel, and the update equation is: h _ k + 1 = h _ k + Q k ⋅ β ⋅ e k ⋅ X _ k ‖ X _ k ‖ 2 , wherein k is a discrete time index, X(k) is a vector of the last input reference samples, Q (k) is defined as Q ( k ) := diag[ q ( k )] and q( k ) indicates a largest input samples and is defined as q l k = { 1 , x l k ∈ L maxima of X _ k 0 , otherwise , l = 0,1 , ... , L − 1 , β is a stepsize, and e(k) is an error signal.