mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing a resource cost database for a wireless network based on wireless network virtualization, the method comprising: identifying , by a controller, virtual links in a wireless network , the virtual links including at least a first virtual link corresponding to a first radio interface and a second virtual link corresponding to a second radio interface, wherein the first radio interface and the second radio interface are available for carrying traffic in the wireless network ; obtaining , by the controller, resource cost data of the wireless network for modeling interference-load dependencies between the virtual links in the wireless network; and generating , by the controller, a resource cost database for resource provisioning based on wireless network virtualization in accordance with the resource cost data, the resource cost database specifying an interference cost on the first virtual link as a function of loading on the second virtual link, wherein the resource cost database is configured to be used for provisioning resources in the wireless network , wherein the interference cost corresponds to a reduction in spectral efficiency on the first virtual link as a result of a traffic load carried over the second virtual link. identifying , by a controller, virtual links in a wireless network , the virtual links including at least a first virtual link corresponding to a first radio interface and a second virtual link corresponding to a second radio interface, wherein the first radio interface and the second radio interface are available for carrying traffic in the wireless network ; obtaining , by the controller, resource cost data of the wireless network for modeling interference-load dependencies between the virtual links in the wireless network; and generating , by the controller, a resource cost database for resource provisioning based on wireless network virtualization in accordance with the resource cost data, the resource cost database specifying an interference cost on the first virtual link as a function of loading on the second virtual link, wherein the resource cost database is configured to be used for provisioning resources in the wireless network , wherein the interference cost corresponds to a reduction in spectral efficiency on the first virtual link as a result of a traffic load carried over the second virtual link.
A mounting structure comprising a filter for cooler of construction machine, said filter having upper and lower end parts and being detachably mountable on a side of a surface of the cooler which opposes to a flow of the sucked air, said cooler being installed in an engine room of an upper rotating body disposed on a lower traveling body, said mounting structure further comprising: a filter mounting portion to be provided on the side of the surface of the cooler which opposes to the flow of the sucked air; an external body for forming the engine room , the external body being provided with a maintenance port for inserting or taking out the filter , characterized in that the filter mounting portion is provided with a filter abutment surface facing towards the upstream side of the flow of sucked air and an elastic body mounting portion opposing the filter abutment surface , and an elastic body and an elastic body protector , one of which is provided on one front end part or upper end side or lower end side of the filter , when the filter is considered in the inserted position, and the other of which is provided on the elastic body mounting portion , a contact of the elastic body and the elastic body protector exerting a position fixing force (F2) in the direction of fixing a position of the filter inserted from the maintenance port to push the opposite end of the filter , and a pressing force (F1) of pressing a sucked air opposing surface of the filter onto the filter abutment surface . a filter mounting portion to be provided on the side of the surface of the cooler which opposes to the flow of the sucked air; an external body for forming the engine room , the external body being provided with a maintenance port for inserting or taking out the filter , characterized in that the filter mounting portion is provided with a filter abutment surface facing towards the upstream side of the flow of sucked air and an elastic body mounting portion opposing the filter abutment surface , and an elastic body and an elastic body protector , one of which is provided on one front end part or upper end side or lower end side of the filter , when the filter is considered in the inserted position, and the other of which is provided on the elastic body mounting portion , a contact of the elastic body and the elastic body protector exerting a position fixing force (F2) in the direction of fixing a position of the filter inserted from the maintenance port to push the opposite end of the filter , and a pressing force (F1) of pressing a sucked air opposing surface of the filter onto the filter abutment surface .
A carboxylic acid derivative of general formula (I), (II) or (III): wherein, R 1 is H or C 1-6 alkyl; X is H or F; Y is F or C 1-6 alkyl substituted with one or more F; n is 1, 2, 3, 4, 5 or 6; W is W 1 or W 2 ; W 1 is NR 2 R 3 , NR 2 R 3 ·A, R 2 is H, C 1-6 alkyl, or C 3-6 cycloalkyl; R 3 is C 1-6 alkyl, C 3-6 cycloalkyl, or benzyl optionally substituted with one or more halogens; m is 0, 1, 2 or 3; A is an acid; W 2 is COOR 4 , OPO(OR 4 ) 2 or PO(OR 4 ) 2 ; R 4 is C 1-6 alkyl substituted with one or more phenyls; M is a metal ion; q is the charge number of M; and G is Cl, Br or benzenesulfonyloxy optionally substituted with C 1-6 alkyl. R 1 is H or C 1-6 alkyl; X is H or F; Y is F or C 1-6 alkyl substituted with one or more F; n is 1, 2, 3, 4, 5 or 6; W is W 1 or W 2 ; W 1 is NR 2 R 3 , NR 2 R 3 ·A, R 2 is H, C 1-6 alkyl, or C 3-6 cycloalkyl; R 3 is C 1-6 alkyl, C 3-6 cycloalkyl, or benzyl optionally substituted with one or more halogens; m is 0, 1, 2 or 3; A is an acid; W 2 is COOR 4 , OPO(OR 4 ) 2 or PO(OR 4 ) 2 ; R 4 is C 1-6 alkyl substituted with one or more phenyls; M is a metal ion; q is the charge number of M; and G is Cl, Br or benzenesulfonyloxy optionally substituted with C 1-6 alkyl.
Burner assembly comprising a combustion chamber and a plurality of burners which are disposed on a circle on the combustion chamber , wherein the burners comprise swirl-generating installations between which passages are formed, air flowing through said passages and fuel being added to the air by way of fuel openings in said passages during the operation, wherein the passages differ in terms of the number and/or the size of the fuel openings , the burner assembly within or outside the circle furthermore comprising a radially encircling annular gap by way of which air about the combustion chamber on one side flows laterally to the burners during the operation, characterized in that the passages of the burners that are closest to the annular gap have more fuel openings , or larger fuel openings , than the passages of the burners that are the furthest from the annular gap .
A solar panel product , comprising a taper with a top side (T) and opposite thereto a base side (B), where the taper is to be carried by a supporting surface (SP), the taper having a taper wall that extends around an axis (AX) from the base side to the top side, the taper wall tapering inwards in the direction from the base side (B) to the top side (T), wherein at least a part of an outer area of the taper wall is provided with a photovoltaic layer , characterized in that the taper has one or more openings (O) at its top side.
Method for boosting a braking force in an electronically slip-controllable vehicle brake system, comprising an actuation device which can be acted on by a driver, a brake booster for boosting an actuation force which is applied by the driver, a master brake cylinder which can be acted on by the brake booster , a wheel brake which is connected to the master brake cylinder , and an electronic slip control device for modulating a brake pressure of the wheel brake , wherein the slip control device can be assigned an electronic control unit and a pressure generator which can be driven by a drive unit which can be actuated electronically, characterized in that a first input signal , which signals a brake request which is present, is registered and converted into a first evaluation signal by the electronic control unit , in particular when there is a fault in the brake booster , in that a second input signal , which represents a brake pressure in the pressure chamber of the master brake cylinder is registered and converted into a second evaluation signal , and in that a sum signal , which is set as the brake pressure by the slip control device by means of corresponding electronic actuation of the pressure generator, is determined by a mathematical addition of the first evaluation signal to the second evaluation signal .
Silicone-free leave-in emulsion for the treatment of hair, comprising a) Caesalpinia spinosa gum in a proportion of 0.01 - 3 % by weight of the total weight of the leave-in emulsion, b) at least one C 16 -C 24 fatty alcohol in a proportion of 1 - 15 % by weight of the total weight of the leave-in emulsion, c) at least one cationic or cationizable surfactant in a proportion of 0.5 - 5% by weight of the total weight of the leave-in emulsion and d) Water in a proportion of 75-85% by weight. a) Caesalpinia spinosa gum in a proportion of 0.01 - 3 % by weight of the total weight of the leave-in emulsion, b) at least one C 16 -C 24 fatty alcohol in a proportion of 1 - 15 % by weight of the total weight of the leave-in emulsion, c) at least one cationic or cationizable surfactant in a proportion of 0.5 - 5% by weight of the total weight of the leave-in emulsion and d) Water in a proportion of 75-85% by weight.
A motor comprising: a cylindrical outer rotor that is rotatable around a central axis thereof; a plurality of magnets that are arranged at equal intervals on an inner circumferential surface of the outer rotor; a plurality of teeth of a stator that are housed inside the outer rotor and radially protrude from the central axis; three Hall elements that are arranged to oppose the plurality of magnets, wherein the three Hall elements detect switching of magnetic poles caused by movement of the plurality of magnets passing through each vicinity of the Hall elements when the outer rotor rotates, at least one of the Hall elements is a linear Hall element that outputs a linear signal representing a linear change of a magnetic flux density caused by movement of the plurality of magnets, and an analysis circuit that analyzes the linear signal representing the linear change of the magnetic flux density, wherein the analysis circuit includes a plurality of comparators , characterized in that at least one of the magnets is an offset magnet that is arranged offset along the central axis as compared to the other magnets , that the offset magnet is arranged to be closer to the linear Hall element than the other magnets , the linear signal representing the linear change of the magnetic flux density and threshold are input to each of the plurality of comparators , and the thresholds to be input, respectively, to the plurality of comparators are different from one another. a cylindrical outer rotor that is rotatable around a central axis thereof; a plurality of magnets that are arranged at equal intervals on an inner circumferential surface of the outer rotor; a plurality of teeth of a stator that are housed inside the outer rotor and radially protrude from the central axis; three Hall elements that are arranged to oppose the plurality of magnets, wherein the three Hall elements detect switching of magnetic poles caused by movement of the plurality of magnets passing through each vicinity of the Hall elements when the outer rotor rotates, at least one of the Hall elements is a linear Hall element that outputs a linear signal representing a linear change of a magnetic flux density caused by movement of the plurality of magnets, and an analysis circuit that analyzes the linear signal representing the linear change of the magnetic flux density, wherein the analysis circuit includes a plurality of comparators , characterized in that at least one of the magnets is an offset magnet that is arranged offset along the central axis as compared to the other magnets , that the offset magnet is arranged to be closer to the linear Hall element than the other magnets , the linear signal representing the linear change of the magnetic flux density and threshold are input to each of the plurality of comparators , and the thresholds to be input, respectively, to the plurality of comparators are different from one another.
A method of operating a receiver for receiving analyte data from a biosensor monitoring an analyte by detecting analyte values, the method comprising - in a receiver , receiving, in successive events separated by intervals of time for which a first interval time is applied, analyte values detected by a biosensor continuously monitoring an analyte, wherein a series of analyte values detected by the biosensor before is received in such event; - receiving a present analyte value in the receiver ; - providing a rate of change for the analyte values; - determining a future analyte value based on the present analyte value, the first interval time, and the rate of change; - providing an analyte value range for the analyte values; - setting a second interval time, the second interval time being - shorter than the first interval time, if the future analyte value is outside the analyte value range, and - longer than or equal to the first interval time, if the future analyte value is within the analyte value range; and - in the receiver , receiving following analyte values in intervals of time for which the second interval time is applied, - in a receiver , receiving, in successive events separated by intervals of time for which a first interval time is applied, analyte values detected by a biosensor continuously monitoring an analyte, wherein a series of analyte values detected by the biosensor before is received in such event; - receiving a present analyte value in the receiver ; - providing a rate of change for the analyte values; - determining a future analyte value based on the present analyte value, the first interval time, and the rate of change; - providing an analyte value range for the analyte values; - setting a second interval time, the second interval time being - shorter than the first interval time, if the future analyte value is outside the analyte value range, and - longer than or equal to the first interval time, if the future analyte value is within the analyte value range; and - shorter than the first interval time, if the future analyte value is outside the analyte value range, and - longer than or equal to the first interval time, if the future analyte value is within the analyte value range; and - in the receiver , receiving following analyte values in intervals of time for which the second interval time is applied,
Method for separating cutting of a plurality of workpiece parts from a plate-like workpiece by means of a processing beam , having the steps of: dividing the plurality of workpiece parts into at least two groups (G1, G2, G3, G4), separating cutting of the workpiece parts from the plate-like workpiece , group (G1, G2, G3, G4) by group (G1, G2, G3, G4), characterised in that , prior to the separating cutting, at least one relief cut is made in the plate-like workpiece , wherein either one or more relief cuts is/are made in the plate-like workpiece along the outer contours of at least two adjacent workpiece parts of one of the groups (G1, G2, G3, G4), which outer contours face an adjacent group (G1, G2, G3, G4), or at least one relief cut is made in the plate-like workpiece between mutually facing outer contours of workpiece parts of at least two adjacent groups (G1, G2, G3, G4). dividing the plurality of workpiece parts into at least two groups (G1, G2, G3, G4), separating cutting of the workpiece parts from the plate-like workpiece , group (G1, G2, G3, G4) by group (G1, G2, G3, G4), characterised in that , prior to the separating cutting, at least one relief cut is made in the plate-like workpiece , wherein either one or more relief cuts is/are made in the plate-like workpiece along the outer contours of at least two adjacent workpiece parts of one of the groups (G1, G2, G3, G4), which outer contours face an adjacent group (G1, G2, G3, G4), or at least one relief cut is made in the plate-like workpiece between mutually facing outer contours of workpiece parts of at least two adjacent groups (G1, G2, G3, G4).
An aerosol generating system comprising: a holder that includes a terminal end , a cigarette insertion hole formed at the terminal end , and a terminal , and that is configured to generate an aerosol by heating an aerosol generating material included in a cigarette to be inserted into the cigarette insertion hole; and a cradle including an inner space into which the holder is inserted, and wherein at least one of the holder and the cradle includes at least one attaching member to increase attachment strength between the holder and the cradle by using a magnetic force, the cradle includes a terminal for supplying power to the holder inserted into the inner space of the cradle , the inner space is formed on one side of the cradle so that when the holder is inserted into the inner space of the cradle , the holder is capable of tilting between a first position where the cigarette insertion hole is completely concealed by the cradle and a second position where the cigarette insertion hole of the holder is completely exposed from the cradle , and even when the holder is tilted such that the terminal end of the holder is exposed to an outside, the terminal of the holder and the terminal of the cradle are coupled with each other. a holder that includes a terminal end , a cigarette insertion hole formed at the terminal end , and a terminal , and that is configured to generate an aerosol by heating an aerosol generating material included in a cigarette to be inserted into the cigarette insertion hole; and a cradle including an inner space into which the holder is inserted, and wherein at least one of the holder and the cradle includes at least one attaching member to increase attachment strength between the holder and the cradle by using a magnetic force, the cradle includes a terminal for supplying power to the holder inserted into the inner space of the cradle , the inner space is formed on one side of the cradle so that when the holder is inserted into the inner space of the cradle , the holder is capable of tilting between a first position where the cigarette insertion hole is completely concealed by the cradle and a second position where the cigarette insertion hole of the holder is completely exposed from the cradle , and even when the holder is tilted such that the terminal end of the holder is exposed to an outside, the terminal of the holder and the terminal of the cradle are coupled with each other.
A mixed fiber nonwoven fabric comprising at least two fiber groups, namely, one containing fibers of polyolefin based resin component A and the other containing fibers of polyolefin based resin component B, the fiber group containing fibers of polyolefin based resin component A being referred to as first fiber group, the first fiber group having a number average fiber diameter of 0.3μm to 7.0 μm, part of the fibers of polyolefin based resin component B, each having a fiber diameter in the range of 15μm to 100 μm and not less than 5 times the number average fiber diameter of the first fiber group being referred to as fibers of second fiber group, the fibers of the second fiber group maintaining a form of fibers and existing in the cross section of the mixed fiber nonwoven fabric at a rate of 7.0 fibers or more per millimeter of the cross-sectional length, the melting point of polyolefin based resin component B being lower by 5°C to 40°C than that of polyolefin based resin component A, the melt flow rate of polyolefin based resin component A being 5 to 100 times the melt flow rate of polyolefin based resin component B and the number average fiber diameter of the mixed fiber nonwoven fabric as a whole being 0.3μm to 10 μm.
A ceramic face mill for machining an Inconel work piece, the face mill configured for rotating about a central rotation axis A R defining opposite axially forward and rearward directions D F , D R , and opposite rotational cutting and succeeding directions D P , D S , the face mill comprising: a shank portion ; and a cutting portion extending forward from the shank portion to a cutting end face ; the cutting portion comprising: an effective cutting length L E ;a diameter D E located at the cutting end face ; a plurality of teeth ; and a gash located between each pair of adjacent teeth of the plurality of teeth ; a tooth of the plurality of teeth comprising: a rake surface ;a relief surface ; and a cutting edge formed at an intersection of the rake and relief surfaces ; the cutting edge comprising: an axial sub-edge located at the cutting end face ; a radial sub-edge located along a periphery of the cutting portion ; and a corner sub-edge extending from the axial sub-edge to the radial sub-edge and defining a corner radius R C ; wherein the entire face mill is made of a ceramic material and has a unitary monolithic construction, wherein the entire axial sub-edge has a positive axial rake angle α; characterised in that at least one entire cutting edge is curved in an end view of the cutting end face . the cutting portion comprising: an effective cutting length L E ;a diameter D E located at the cutting end face ; a plurality of teeth ; and a gash located between each pair of adjacent teeth of the plurality of teeth ; a tooth of the plurality of teeth comprising: a rake surface ;a relief surface ; and a cutting edge formed at an intersection of the rake and relief surfaces ; the cutting edge comprising: an axial sub-edge located at the cutting end face ; a radial sub-edge located along a periphery of the cutting portion ; and a corner sub-edge extending from the axial sub-edge to the radial sub-edge and defining a corner radius R C ; wherein the entire face mill is made of a ceramic material and has a unitary monolithic construction, wherein the entire axial sub-edge has a positive axial rake angle α; characterised in that at least one entire cutting edge is curved in an end view of the cutting end face . an axial sub-edge located at the cutting end face ; a radial sub-edge located along a periphery of the cutting portion ; and a corner sub-edge extending from the axial sub-edge to the radial sub-edge and defining a corner radius R C ; wherein the entire face mill is made of a ceramic material and has a unitary monolithic construction, wherein the entire axial sub-edge has a positive axial rake angle α; characterised in that at least one entire cutting edge is curved in an end view of the cutting end face .