mhurhangee/patent-ind-claim-en huggingface dataset:
A secondary air system (SAS) of an aircraft gas turbine engine having a main gas path extending through an engine core , the aircraft engine producing secondary airflow (34; 45) from a source of secondary air , the SAS comprising: a hollow strut (28; 28') configured to extend radially through the main gas path , the hollow strut (28; 28') defining therein a strut conduit (33; 33') extending between a strut inlet (29; 29') and a strut outlet (31; 31') at opposite ends of the hollow strut (28; 28'); and a buffer cavity , wherein the strut outlet (31; 31') is in fluid flow communication with the buffer cavity for feeding the secondary airflow (34; 45) to the engine core ; characterised in that the SAS comprises: two or more SAS feed pipes (42; 42') each having an inlet (46; 46') receiving the secondary airflow (34; 45) from the source of secondary air and respectively defining therein a secondary air stream flowing in parallel, and an outlet (50; 50') in fluid flow communication with the strut inlet (29; 29') to feed the secondary airflow (34; 45) into the strut conduit (33; 33'), wherein each of the SAS feed pipes (42; 42') has a sonic orifice therein between the inlet (46; 46') and the outlet (50; 50') thereof, wherein the sonic orifice is formed by a converging-diverging nozzle and is configured such that: at high power and/or high engine speed, the sonic orifice forms a compressibility-driven restriction for to limit the secondary airflow (34; 45) due to choking; and at low power and/or low engine speed the sonic orifice forms a significantly reduced flow restriction for maximizing the secondary airflow (34; 45). a hollow strut (28; 28') configured to extend radially through the main gas path , the hollow strut (28; 28') defining therein a strut conduit (33; 33') extending between a strut inlet (29; 29') and a strut outlet (31; 31') at opposite ends of the hollow strut (28; 28'); and a buffer cavity , wherein the strut outlet (31; 31') is in fluid flow communication with the buffer cavity for feeding the secondary airflow (34; 45) to the engine core ; characterised in that the SAS comprises: two or more SAS feed pipes (42; 42') each having an inlet (46; 46') receiving the secondary airflow (34; 45) from the source of secondary air and respectively defining therein a secondary air stream flowing in parallel, and an outlet (50; 50') in fluid flow communication with the strut inlet (29; 29') to feed the secondary airflow (34; 45) into the strut conduit (33; 33'), wherein each of the SAS feed pipes (42; 42') has a sonic orifice therein between the inlet (46; 46') and the outlet (50; 50') thereof, wherein the sonic orifice is formed by a converging-diverging nozzle and is configured such that: at high power and/or high engine speed, the sonic orifice forms a compressibility-driven restriction for to limit the secondary airflow (34; 45) due to choking; and at low power and/or low engine speed the sonic orifice forms a significantly reduced flow restriction for maximizing the secondary airflow (34; 45).
A method comprising: detecting an initiation of a movement process of a virtual machine executed by a first physical host to a destination physical host ; initiating a transfer of a stateful process executed by a first network entity and providing firewall protection services for the virtual machine executed in the first physical host , including causing execution parameters for the firewall protection services to be sent to a second network entity ; and completing the movement process of the virtual machine to the destination physical host in response to detecting that the stateful process is executing in the second network entity and is ready to provide the firewall protection services for execution of the virtual machine in the destination physical host , wherein the first physical host , the destination physical host , the first network entity , and the second network entity each are distinct and independent physical machines, wherein the first and second network entities are outside of management domains of hypervisors executed by the first physical host and the destination physical host . detecting an initiation of a movement process of a virtual machine executed by a first physical host to a destination physical host ; initiating a transfer of a stateful process executed by a first network entity and providing firewall protection services for the virtual machine executed in the first physical host , including causing execution parameters for the firewall protection services to be sent to a second network entity ; and completing the movement process of the virtual machine to the destination physical host in response to detecting that the stateful process is executing in the second network entity and is ready to provide the firewall protection services for execution of the virtual machine in the destination physical host , wherein the first physical host , the destination physical host , the first network entity , and the second network entity each are distinct and independent physical machines, wherein the first and second network entities are outside of management domains of hypervisors executed by the first physical host and the destination physical host .
A method for generating a target vehicle speed of a driving-assisted host vehicle, the method involving generating the target vehicle speed of the host vehicle in accordance with obstacles that hinder travel of the host vehicle, wherein the method includes: generating a target travel route of the host vehicle; acquiring position information pertaining to the obstacles on a travel path of the host vehicle, and position information pertaining to the obstacles that are outside of the travel path of the host vehicle; and for each of the obstacles, computing a lateral deviation between the target travel route and the obstacle (S202), the method being characterized by for each of the obstacles, computing an add-on amount for a frontward distance in accordance with the lateral deviation computed for the obstacle (S206, S207, S208, S209), and computing a virtual distance by adding the add-on amount to the frontward distance, the frontward distance being an actual distance between the obstacle and the host vehicle (S210); selecting the shortest of all the virtual distances that were computed as a virtual shortest distance (S212); and generating the target vehicle speed based on the virtual shortest distance. generating a target travel route of the host vehicle; acquiring position information pertaining to the obstacles on a travel path of the host vehicle, and position information pertaining to the obstacles that are outside of the travel path of the host vehicle; and for each of the obstacles, computing a lateral deviation between the target travel route and the obstacle (S202), the method being characterized by for each of the obstacles, computing an add-on amount for a frontward distance in accordance with the lateral deviation computed for the obstacle (S206, S207, S208, S209), and computing a virtual distance by adding the add-on amount to the frontward distance, the frontward distance being an actual distance between the obstacle and the host vehicle (S210); selecting the shortest of all the virtual distances that were computed as a virtual shortest distance (S212); and generating the target vehicle speed based on the virtual shortest distance.
System for protection of a person against contamination of air in a vicinity of a home appliance for preparing food, especially a cooker , wherein the system comprises: - a first sensor for determining a first concentration of a first substance in the air; - wherein the first sensor is adapted to be carried on the person ; and - a processing unit that is adapted to determine, on the basis of the first concentration, an indication of an impact of the first substance on the person's health, - an interface for receiving information on a temperature generated by the home appliance for preparing food, wherein said first substance is producible by exposing a cooking ingredient to heat, and - wherein the processing unit is adapted to present to the person an instruction for preparing, especially cooking, food such that the determined indication may be lowered. - a first sensor for determining a first concentration of a first substance in the air; - wherein the first sensor is adapted to be carried on the person ; and - a processing unit that is adapted to determine, on the basis of the first concentration, an indication of an impact of the first substance on the person's health, - an interface for receiving information on a temperature generated by the home appliance for preparing food, wherein said first substance is producible by exposing a cooking ingredient to heat, and - wherein the processing unit is adapted to present to the person an instruction for preparing, especially cooking, food such that the determined indication may be lowered.
A refrigerator for accumulating an ultralow temperature of 10 K or lower, comprising: at least one cold accumulating vessel , wherein a rare earth cold accumulating material particle having an average particle size of 100 to 500 μm and having a maximum pore size of 4 μm or less is filled in the cold accumulating vessel , wherein the rare earth cold accumulating material particle consists essentially of a rare earth oxide or a rare earth oxysulfide, wherein the rare earth cold accumulating material particle is a sintered body, wherein an average crystal grain size of the sintered body is 0.5 to 5 um, wherein a porosity of the sintered body is 10 to 50 vol%, wherein an average pore size of the sintered body is 0.3 to 3 um, and wherein in an arbitrary cross section of the rare earth cold accumulating material particle , a number of pores per a unit area of 10 μm × 10 um is 20 to 70. at least one cold accumulating vessel , wherein a rare earth cold accumulating material particle having an average particle size of 100 to 500 μm and having a maximum pore size of 4 μm or less is filled in the cold accumulating vessel , wherein the rare earth cold accumulating material particle consists essentially of a rare earth oxide or a rare earth oxysulfide, wherein the rare earth cold accumulating material particle is a sintered body, wherein an average crystal grain size of the sintered body is 0.5 to 5 um, wherein a porosity of the sintered body is 10 to 50 vol%, wherein an average pore size of the sintered body is 0.3 to 3 um, and wherein in an arbitrary cross section of the rare earth cold accumulating material particle , a number of pores per a unit area of 10 μm × 10 um is 20 to 70.
Milling tool comprising a tool head which is rotatable about a tool axis and can be coupled at its rear to a machine spindle, a plurality of cutting elements for milling a workpiece, which cutting elements are arranged so as to be distributed around the tool axis on a cutting circle and are each provided with a front plane cutting edge and a peripheral cutting edge extending at an angle thereto, and a channel system extending through the tool head for delivering coolant to the cutting elements , characterized in that a replaceable ring is equipped with the cutting elements , and the replaceable ring is placed on a front end flange of the tool head in an interlocking manner and releasably fastened there, wherein the replaceable ring comprises a plurality of coolant distribution channels which are associated individually with the cutting elements and extend so as to be curved at least in portions, and that the replaceable ring is in the form of a 3D-printed part.
A uniplanar bone anchor comprising: a housing comprising a bore extending along a bore longitudinal axis (L) through the housing to a lower housing opening and a channel disposed therein that is transverse to the bore, the channel for receiving an elongate member, the housing further comprising a mating element spaced from the lower opening of the housing and extending transverse to the bore longitudinal axis from an inner surface of the housing into the bore to at least partially define an upper chamber and a lower chamber , the mating element comprising an opening defining two opposing planar surfaces extending parallel to the bore longitudinal axis, the opposing planar surfaces separated by opposing curved surfaces ; and a bone screw comprising a head and a shank extending from the head along a screw longitudinal axis, wherein the head is positionable in the housing and comprises a substantially spherical surface extending between first and second opposing planar side surfaces wherein the first and second opposing planar side surfaces cooperate with the two opposing planar surfaces of the mating element to restrict angular movement of the bone screw to a single plane relative to the bore longitudinal axis. a housing comprising a bore extending along a bore longitudinal axis (L) through the housing to a lower housing opening and a channel disposed therein that is transverse to the bore, the channel for receiving an elongate member, the housing further comprising a mating element spaced from the lower opening of the housing and extending transverse to the bore longitudinal axis from an inner surface of the housing into the bore to at least partially define an upper chamber and a lower chamber , the mating element comprising an opening defining two opposing planar surfaces extending parallel to the bore longitudinal axis, the opposing planar surfaces separated by opposing curved surfaces ; and a bone screw comprising a head and a shank extending from the head along a screw longitudinal axis, wherein the head is positionable in the housing and comprises a substantially spherical surface extending between first and second opposing planar side surfaces wherein the first and second opposing planar side surfaces cooperate with the two opposing planar surfaces of the mating element to restrict angular movement of the bone screw to a single plane relative to the bore longitudinal axis.
An agricultural harvester , in particular a forage harvester, comprising a conveyor passage for a flow (S) of crop material, a sensor device for detecting contents and/or properties of the crop material flow (S), which has a housing , a protective panel closing off the housing relative to the interior of the conveyor passage , and a sensor arranged in the space formed by the housing and the protective panel , and a cleaning device configured to clean the protective panel , wherein the sensor device is associated with an opening in a side wall of the conveyor passage and the crop material flow (S) in the conveyor passage can be guided past the protective panel and wherein the cleaning device has at least one outlet nozzle for a cleaning fluid , characterised in that the main jet direction (R) of the at least one outlet nozzle extends at an angle relative to the surface of the protective panel , the harvester has a silage means installation configured to add a silage means to the crop material flow (S) upstream of the protective panel , and the cleaning fluid is accommodated by a storage container which is in fluid communication with the at least one outlet nozzle and the storage container is a component part of the silage means installation , in particular a silage mixing device of the silage means installation .
A method of transmitting a feedback frame in a wireless local area network, WLAN, system, the method comprising: generating (S1810), by a first station, STA , the feedback frame based on a multi input multi output, MIMO, beamforming procedure; and transmitting (S1820), by the first STA , the feedback frame to a second STA , wherein the feedback frame includes digital beamforming matrices information for a number of feedback subcarriers for a predetermined frequency band, wherein the feedback subcarriers include a first subcarrier, second subcarriers and third subcarriers, wherein the first subcarrier is configured as a left edge subcarrier or right edge subcarrier of the predetermined frequency band, wherein the second subcarriers are subcarriers whose subcarrier indices are -2 and 2, wherein the third subcarriers are remaining subcarriers excluding the first subcarrier and the second subcarriers, wherein the information for the first subcarrier is transmitted first and the information for the second subcarriers is statically transmitted, wherein each distance between two adjacent third subcarriers is determined by a grouping value, and wherein the grouping value is dynamically changed to 2, 4 or 8 within the feedback frame for the third subcarriers based on channel state information. generating (S1810), by a first station, STA , the feedback frame based on a multi input multi output, MIMO, beamforming procedure; and transmitting (S1820), by the first STA , the feedback frame to a second STA , wherein the feedback frame includes digital beamforming matrices information for a number of feedback subcarriers for a predetermined frequency band, wherein the feedback subcarriers include a first subcarrier, second subcarriers and third subcarriers, wherein the first subcarrier is configured as a left edge subcarrier or right edge subcarrier of the predetermined frequency band, wherein the second subcarriers are subcarriers whose subcarrier indices are -2 and 2, wherein the third subcarriers are remaining subcarriers excluding the first subcarrier and the second subcarriers, wherein the information for the first subcarrier is transmitted first and the information for the second subcarriers is statically transmitted, wherein each distance between two adjacent third subcarriers is determined by a grouping value, and wherein the grouping value is dynamically changed to 2, 4 or 8 within the feedback frame for the third subcarriers based on channel state information.
Elevator comprising a car movable in an elevator shaft and a counterweight movable together with the car in the elevator shaft in a direction of movement opposite to the direction of movement of the car , the car having a car roof and a pivotable balustrade arranged on the car roof at a side of the car facing towards the counterweight , wherein the balustrade is or can be secured in a first fall protection position, in which first fall protection position the balustrade has an inclined orientation for reducing the accessible area, wherein the elevator comprises a locking mechanism for securing the balustrade in the first fall protection position and a locking mechanism for securing the balustrade in a second fall protection position.
A grooming tool for removing loose hair or fur, tangled hair or fur and/or matted hair or fur, comprising: (a) a handle ; and (b) a head attached to the handle ; the head having a plurality of curved blades for grooming which are adjustable in at least an extended position and a non-extended position; (i) wherein the curved blades are curved between 60-90°; and (ii) wherein a distance between the extended position and non-extended position ranges between 3-10 mm, characterized in that the curved blades can be used on hair or fur in the extended position and non-extended position. (a) a handle ; and (b) a head attached to the handle ; the head having a plurality of curved blades for grooming which are adjustable in at least an extended position and a non-extended position; (i) wherein the curved blades are curved between 60-90°; and (ii) wherein a distance between the extended position and non-extended position ranges between 3-10 mm, (i) wherein the curved blades are curved between 60-90°; and (ii) wherein a distance between the extended position and non-extended position ranges between 3-10 mm,
A device for adaptive roadmapping for examination of an object of interest, comprising - a processing unit ; - an interface unit ; and - a display ; wherein the interface unit is adapted to provide pre-navigation image data that represents at least a part of a vascular structure comprising a tree-like structure with a plurality of sub-trees; and to provide live image data of the object, which object comprises the vascular structure; wherein the vascular structure contains an element of interest; and wherein the processing unit is adapted to generate a vessel representation on the basis of the pre-navigation image data; to determine spatial relation of the pre-navigation image data and live image data; to analyze the live image data by identifying and localizing the element in the live image data; to determine a sub-tree in which the element is positioned, wherein the determining is based on the localization of the element and on the spatial relation, and to select a portion of the vascular structure based on the determined sub-tree; and to generate a combination of the live image data and an image of the selected portion of the vascular structure; wherein the display is adapted to display the combination as a tailored roadmap. - a processing unit ; - an interface unit ; and - a display ; wherein the interface unit is adapted to provide pre-navigation image data that represents at least a part of a vascular structure comprising a tree-like structure with a plurality of sub-trees; and to provide live image data of the object, which object comprises the vascular structure; wherein the vascular structure contains an element of interest; and wherein the processing unit is adapted to generate a vessel representation on the basis of the pre-navigation image data; to determine spatial relation of the pre-navigation image data and live image data; to analyze the live image data by identifying and localizing the element in the live image data; to determine a sub-tree in which the element is positioned, wherein the determining is based on the localization of the element and on the spatial relation, and to select a portion of the vascular structure based on the determined sub-tree; and to generate a combination of the live image data and an image of the selected portion of the vascular structure; wherein the display is adapted to display the combination as a tailored roadmap.
A sheet processing apparatus comprising: a plurality of roller pairs configured to convey a sheet from upstream to downstream in a sheet conveyance direction, the plurality of roller pairs include: a first roller pair ; a second roller pair disposed downstream from the first roller pair in the sheet conveyance direction; and a third roller pair disposed between the first roller pair and the second roller pair and configured to form a crease on the sheet; and a single driving force supply source configured to supply a driving force to the first roller pair , the second roller pair , and the third roller pair ; the sheet processing apparatus being characterized by a drive transmission mechanism configured to transmit the driving force to the first roller pair and the second roller pair in a manner such that a rotation direction of the first roller pair is not switched even in a case in which a direction of the driving force is switched such that a rotation direction of the second roller pair is switched when the first roller pair and the second roller pair are driven by the driving force from the driving force supply source . a first roller pair ; a second roller pair disposed downstream from the first roller pair in the sheet conveyance direction; and a third roller pair disposed between the first roller pair and the second roller pair and configured to form a crease on the sheet; and a single driving force supply source configured to supply a driving force to the first roller pair , the second roller pair , and the third roller pair ; the sheet processing apparatus being characterized by a drive transmission mechanism configured to transmit the driving force to the first roller pair and the second roller pair in a manner such that a rotation direction of the first roller pair is not switched even in a case in which a direction of the driving force is switched such that a rotation direction of the second roller pair is switched when the first roller pair and the second roller pair are driven by the driving force from the driving force supply source .