mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a data network comprising a plurality of servers , the servers having respective network addresses associated with respective application functions, comprising the steps of: - monitoring data flows to and from the servers, - creating for each server a profile representing network traffic behaviour of the server - classifying servers according to their profiles; - identifying servers classified as having profiles indicative of low server usage; - retrieving programming instructions and data relating to the identified servers classified as having profiles indicative of low server usage; - storing the retrieved programme instructions and data in a storage medium from which the stored data relating to each server may subsequently be retrieved to create a corresponding virtual server replicating the server to which it relates by recovering and installing the stored programme instructions and data such that further data requests can be fulfilled by the virtual server - shutting down the servers classified as having profiles indicative of low server usage and for which data has been stored. - monitoring data flows to and from the servers, - creating for each server a profile representing network traffic behaviour of the server - classifying servers according to their profiles; - identifying servers classified as having profiles indicative of low server usage; - retrieving programming instructions and data relating to the identified servers classified as having profiles indicative of low server usage; - storing the retrieved programme instructions and data in a storage medium from which the stored data relating to each server may subsequently be retrieved to create a corresponding virtual server replicating the server to which it relates by recovering and installing the stored programme instructions and data such that further data requests can be fulfilled by the virtual server - shutting down the servers classified as having profiles indicative of low server usage and for which data has been stored.
Facade element for buildings, where the facade element comprises a window unit with at least one window comprising at least two substantially parallel glass panes , where said at least two glass panes are placed in a common frame , or in two or more lateral and preferably joined frames , where said at least two glass panes are disposed at a distance, and thus present an air space between said glass panes , where said window furthermore comprises at least one air intake and at least one first air regulating device in connection with said at least one air intake , an air outlet and a second air regulating device in connection with said air outlet , the air outlet being in connection with said air space , wherein outdoor air is brought into said air space through said at least one air intake and the outdoor air is brought out of said air space into a room or building or out to the outdoor air through said air outlet , wherein the facade element has an outer side and an inner side , wherein the facade element furthermore comprises an air temperature change unit in connection with the at least one air intake , wherein said air temperature change unit comprises an insulating element on the outer side of the facade element , wherein said air temperature change unit furthermore comprises at least one of the following: - a heating element on the outer side of the facade element and an air passage between the insulating element and the heating element which brings outdoor air in behind or through said heating element where the air is warmed before the air is taken further through the at least one first air regulating device , - a cooling element on the inner side of the facade element , the cooled air being taken through the at least one air intake into the space . - a heating element on the outer side of the facade element and an air passage between the insulating element and the heating element which brings outdoor air in behind or through said heating element where the air is warmed before the air is taken further through the at least one first air regulating device , - a cooling element on the inner side of the facade element , the cooled air being taken through the at least one air intake into the space .
Rack system for a commercial vehicle , comprising at least one guide rail fixable to at least one vehicle structure of the commercial vehicle , and at least one rack slidingly supported by the guide rail back and forth in a lateral direction of the commercial vehicle , wherein at least one fixing unit for temporary fixing the rack selectively in one of several fixing positions disposed along the guide rail by fixing the rack to the guide rail and/or to the vehicle structure characterized by at least one electrically controllable actuator for slidingly moving said rack along the guide rail , at least one sensor unit for detecting a current lateral inclination state of the commercial vehicle , and at least one electronic control unit suitable to control the actuator according to the current lateral inclination state of the commercial vehicle , so that the lateral inclination of the commercial vehicle becomes minimal or zero.
An ink jet head , comprising: a cover having an opening therein; a flexible cable extending from the opening toward an outside of the cover and having a rigidity lower than a rigidity of the cover; and a protection member having a rigidity higher than the rigidity of the flexible cable, arranged between the flexible cable and the opening of the cover, and protruding toward an outside of the opening of the cover, while both end portions of an outer end edge of the opening are inclined or curved in a direction in which the flexible cable extends from the opening; characterized by further comprising a sealing provided in the opening in which the flexible cable and the protection member are arranged, the protection member being provided between the sealing and the flexible cable. a cover having an opening therein; a flexible cable extending from the opening toward an outside of the cover and having a rigidity lower than a rigidity of the cover; and a protection member having a rigidity higher than the rigidity of the flexible cable, arranged between the flexible cable and the opening of the cover, and protruding toward an outside of the opening of the cover, while both end portions of an outer end edge of the opening are inclined or curved in a direction in which the flexible cable extends from the opening; characterized by further comprising a sealing provided in the opening in which the flexible cable and the protection member are arranged, the protection member being provided between the sealing and the flexible cable.
An information processing device comprising: an imaging position information acquisition unit configured to acquire imaging position information at a time when a structure is imaged which is acquired by an imaging device configured to fly over a periphery of the structure to image the structure on the basis of certain flight information; an image combining unit configured to generate a combined image in which a plurality of captured images is stitched; a damage position calculating unit configured to calculate the position of damage of the structure included in the combined image using the imaging positions of the corners of the plurality of captured images; and a damage data generating unit configured to generate data related to damage of the structure including position information of damage of the structure on the basis of the imaging position information and an accuracy of the imaging of position information at a time when the structure is imaged which is acquired by the imaging device, wherein the accuracy of position information is GPS position measurement data which comprises: an indication that a state in which 2D position measurement is being performed, a state in which 3D position measurement is being performed, a position measurement disable state or an indication of the number of reception satellites. an imaging position information acquisition unit configured to acquire imaging position information at a time when a structure is imaged which is acquired by an imaging device configured to fly over a periphery of the structure to image the structure on the basis of certain flight information; an image combining unit configured to generate a combined image in which a plurality of captured images is stitched; a damage position calculating unit configured to calculate the position of damage of the structure included in the combined image using the imaging positions of the corners of the plurality of captured images; and a damage data generating unit configured to generate data related to damage of the structure including position information of damage of the structure on the basis of the imaging position information and an accuracy of the imaging of position information at a time when the structure is imaged which is acquired by the imaging device, wherein the accuracy of position information is GPS position measurement data which comprises: an indication that a state in which 2D position measurement is being performed, a state in which 3D position measurement is being performed, a position measurement disable state or an indication of the number of reception satellites.
An aerial drone reel device comprising: an aerial drone fixating portion , a reel body arranged along a rotational axis (AA), wherein said reel body is rotatably attached to said aerial drone fixating portion , wherein said reel body comprises: a first winding segment for providing a first winding lever distance (L1) to said rotational axis (AA), a second winding segment providing a second winding lever distance (L2) to said rotational axis (AA), wherein said first and second winding segment is adapted to wind a tether at said first and second winding lever distance respectively, and wherein said first winding lever distance (L1) is larger than said second winding lever distance (L2), wherein a first portion of said tether is wound around said first winding segment and a second portion of said tether is wound around said second winding segment , characterized in that at least one of said first and second winding segment has a width of at least two times a thickness of said tether and the winding lever distance is kept constant for a given winding segment. an aerial drone fixating portion , a reel body arranged along a rotational axis (AA), wherein said reel body is rotatably attached to said aerial drone fixating portion , wherein said reel body comprises: a first winding segment for providing a first winding lever distance (L1) to said rotational axis (AA), a second winding segment providing a second winding lever distance (L2) to said rotational axis (AA), wherein said first and second winding segment is adapted to wind a tether at said first and second winding lever distance respectively, and wherein said first winding lever distance (L1) is larger than said second winding lever distance (L2), wherein a first portion of said tether is wound around said first winding segment and a second portion of said tether is wound around said second winding segment , characterized in that at least one of said first and second winding segment has a width of at least two times a thickness of said tether and the winding lever distance is kept constant for a given winding segment. a first winding segment for providing a first winding lever distance (L1) to said rotational axis (AA), a second winding segment providing a second winding lever distance (L2) to said rotational axis (AA), wherein said first and second winding segment is adapted to wind a tether at said first and second winding lever distance respectively, and wherein said first winding lever distance (L1) is larger than said second winding lever distance (L2), wherein a first portion of said tether is wound around said first winding segment and a second portion of said tether is wound around said second winding segment , characterized in that at least one of said first and second winding segment has a width of at least two times a thickness of said tether and the winding lever distance is kept constant for a given winding segment.
Method (S1 - S7) for operating a household cooking appliance with a cooking chamber , in which - a humidity value (f) in the cooking chamber is monitored (S4) and - when the humidity value (f) reaches or falls below a predetermined threshold value (T(t0)), a sign is output (S5), wherein - the threshold value (T(t0)) is determined from a reference humidity value (fr(t0)) determined at a predetermined point in time (t0), multiplied by a predetermined associated proportional factor (y) where 0 < y < 1 and - the humidity value (f) in the cooking chamber continues to be monitored (S4) after outputting the sign and - when the humidity value (f) reaches or falls below a further predetermined threshold value (T(t1)), which is lower than the previously determined threshold value (T(t0)), a further sign is output (S5). - a humidity value (f) in the cooking chamber is monitored (S4) and - when the humidity value (f) reaches or falls below a predetermined threshold value (T(t0)), a sign is output (S5), wherein - the threshold value (T(t0)) is determined from a reference humidity value (fr(t0)) determined at a predetermined point in time (t0), multiplied by a predetermined associated proportional factor (y) where 0 < y < 1 and - the humidity value (f) in the cooking chamber continues to be monitored (S4) after outputting the sign and - when the humidity value (f) reaches or falls below a further predetermined threshold value (T(t1)), which is lower than the previously determined threshold value (T(t0)), a further sign is output (S5).
A method comprising: receiving, by a wireless device and via a first physical downlink control channel, PDCCH, monitoring occasion of PDCCH monitoring occasions for PDCCH repetition in a slot, a repetition of a downlink control information, DCI, triggering transmission of an uplink signal; and transmitting the uplink signal based on a number of symbols starting from a last symbol of a second PDCCH monitoring occasion of the PDCCH monitoring occasions of the slot, wherein the second PDCCH monitoring occasion has a latest ending time among ending times of the PDCCH monitoring occasions. receiving, by a wireless device and via a first physical downlink control channel, PDCCH, monitoring occasion of PDCCH monitoring occasions for PDCCH repetition in a slot, a repetition of a downlink control information, DCI, triggering transmission of an uplink signal; and transmitting the uplink signal based on a number of symbols starting from a last symbol of a second PDCCH monitoring occasion of the PDCCH monitoring occasions of the slot, wherein the second PDCCH monitoring occasion has a latest ending time among ending times of the PDCCH monitoring occasions.
A vaccine vector comprising a first polynucleotide sequence encoding an Apicomplexan Rhomboid polypeptide optionally expressed on the surface of the vaccine vector, wherein the Rhomboid polypeptide consists of SEQ ID NO: 2, SEQ ID NO: 37, or an immunogenic fragment of SEQ ID NO: 2 comprising amino acids 1-11, 18-27, or 31-43 of SEQ ID NO: 2 and further comprising a second polynucleotide sequence encoding an immunostimulatory polypeptide, wherein the immunostimulatory polypeptide is expressed on the surface of the vaccine vector, wherein the vaccine vector effects an immune response against an Apicomplexan parasite in a subject, and wherein the immune response is a protective immune response.
A method of manufacturing a confection, comprising: mixing a plurality of ingredients comprising gum base, a bulk sweetener, and a fat to form a confectionery mass in a mixing station; forming the confectionery mass into a continuous confectionery sheet having a uniform thickness via a forming station; and increasing a hardness of the confectionery mass or the confectionery sheet without cooling the confectionery mass or the confectionery sheet to below room temperature, wherein increasing the hardness of the confectionery mass or the confectionery sheet comprises holding the confectionery mass or the confectionery sheet at a temperature between about 25°C and about 75°C and at a relative humidity of less than 80% for a predetermined time which is 5 minutes to 6 hours in a treatment station; wherein the method further comprises: cooling the confectionery mass or the confectionery sheet downstream of the holding in a cooling tunnel downstream of the treatment station, and wherein the confection is a chewing gum. mixing a plurality of ingredients comprising gum base, a bulk sweetener, and a fat to form a confectionery mass in a mixing station; forming the confectionery mass into a continuous confectionery sheet having a uniform thickness via a forming station; and increasing a hardness of the confectionery mass or the confectionery sheet without cooling the confectionery mass or the confectionery sheet to below room temperature, wherein increasing the hardness of the confectionery mass or the confectionery sheet comprises holding the confectionery mass or the confectionery sheet at a temperature between about 25°C and about 75°C and at a relative humidity of less than 80% for a predetermined time which is 5 minutes to 6 hours in a treatment station; wherein the method further comprises: cooling the confectionery mass or the confectionery sheet downstream of the holding in a cooling tunnel downstream of the treatment station, and wherein the confection is a chewing gum.
A dental occlusal adjustment burr where external dimensions of the burr has flat sides that diverge on an angle from 70 to 95 degrees and where at the confluence of the flat sides there is a radius of 0.8 mm to 1.4mm and where the flat sides widen at the angle of divergence to a minimum diameter of 3mm to a maximum diameter of 4.5mm.
A method for determining the thickness profile of a work product (WP), comprising: Scanning a work product with an X-ray scanner , Analyzing the data from the X-ray scanner with a computer processor to develop a thickness profile of the work product, Scanning the work product with an optical scanner , Analyzing the data from the optical scanner with a computer processor to develop a thickness profile of the work product based on the optical scanning data, Comparing the thickness profiles from the X-ray scanning data and the optical scanning data and determining the differences between the thickness profiles from the X-ray scanning data and the optical scanning data, and Mapping the location(s) on the work product where a difference exists between the thickness profiles from the X-ray scanning data and the optical scanning data. Scanning a work product with an X-ray scanner , Analyzing the data from the X-ray scanner with a computer processor to develop a thickness profile of the work product, Scanning the work product with an optical scanner , Analyzing the data from the optical scanner with a computer processor to develop a thickness profile of the work product based on the optical scanning data, Comparing the thickness profiles from the X-ray scanning data and the optical scanning data and determining the differences between the thickness profiles from the X-ray scanning data and the optical scanning data, and Mapping the location(s) on the work product where a difference exists between the thickness profiles from the X-ray scanning data and the optical scanning data.
A computer-implemented method for obtaining an assessment of the severity and location of an ischaemic stroke in a patient from a tomographic scan that provides three-dimensional data about the patient's brain, the method comprising: processing the data to produce a three-dimensional image; performing registration to align the three-dimensional image with a reference image, using 3-D rigid and/or non-rigid transformations; identifying regions in the aligned image that correspond to structures within the brain that are expected to be evident; classifying each voxel or group of adjacent voxels within an identified region by a voxel score that corresponds to the difference between the attenuation of that voxel or group of voxels and the expected attenuation at that region of the brain, wherein the expected attenuation at each region of the brain is ascertained from the corresponding region on the opposite side of the brain; and deducing a cumulative score that combines the voxel scores from all the voxels or groups of adjacent voxels of at least a region of the brain. processing the data to produce a three-dimensional image; performing registration to align the three-dimensional image with a reference image, using 3-D rigid and/or non-rigid transformations; identifying regions in the aligned image that correspond to structures within the brain that are expected to be evident; classifying each voxel or group of adjacent voxels within an identified region by a voxel score that corresponds to the difference between the attenuation of that voxel or group of voxels and the expected attenuation at that region of the brain, wherein the expected attenuation at each region of the brain is ascertained from the corresponding region on the opposite side of the brain; and deducing a cumulative score that combines the voxel scores from all the voxels or groups of adjacent voxels of at least a region of the brain.
Steel piston for an internal combustion engine with at least one cooling channel and shank surfaces with which, in the installed state, the piston lies against a cylinder bore or a cylinder liner on a pressure side and a counterpressure side, wherein one shank surface has a width 25-50% less than the other shank surface, and a cooling channel outlet is arranged centrally on the side of the narrower shank surface.