mhurhangee/patent-ind-claim-en huggingface dataset:
A multilayer tubular structure (MLT) intended for transporting a heat-transfer fluid, said multilayer tubular structure comprising: at least one layer comprising a composition comprising predominantly at least one long-chain polyamide having 10 to 15 carbon atoms per nitrogen atom and comprising at least 50% of aliphatic units relative to the sum of the units present in said long-chain polyamide, at least one layer situated underneath said layer comprising a composition comprising predominantly at least one polyamide having 4 to 9 carbon atoms per nitrogen atom, said polyamide comprising at least 50% aliphatic units relative to the sum of the units present in said polyamide, said composition comprising up to 12% polyolefins, in particular up to 6% by weight of polyolefin, relative to the total weight of said composition , and up to 2% by weight of at least one plasticizer relative to the total weight of said composition , optionally, a layer comprising a composition as defined for composition , or comprising a composition comprising predominantly a short-chain polyamide with 4 to 7 carbon atoms per nitrogen atom and at least 20%, preferably at least 25% by weight of at least one polyolefin relative to the total weight of said composition , or a composition comprising a polyamide comprising at least 50% semi-aromatic units, said layer being devoid of continuous fibers. said layer being in contact with said transported fluid when said layer is not present, and said layer(s) representing at least 50% of the total thickness of the tube. at least one layer comprising a composition comprising predominantly at least one long-chain polyamide having 10 to 15 carbon atoms per nitrogen atom and comprising at least 50% of aliphatic units relative to the sum of the units present in said long-chain polyamide, at least one layer situated underneath said layer comprising a composition comprising predominantly at least one polyamide having 4 to 9 carbon atoms per nitrogen atom, said polyamide comprising at least 50% aliphatic units relative to the sum of the units present in said polyamide, said composition comprising up to 12% polyolefins, in particular up to 6% by weight of polyolefin, relative to the total weight of said composition , and up to 2% by weight of at least one plasticizer relative to the total weight of said composition , optionally, a layer comprising a composition as defined for composition , or comprising a composition comprising predominantly a short-chain polyamide with 4 to 7 carbon atoms per nitrogen atom and at least 20%, preferably at least 25% by weight of at least one polyolefin relative to the total weight of said composition , or a composition comprising a polyamide comprising at least 50% semi-aromatic units, said layer being devoid of continuous fibers. said layer being in contact with said transported fluid when said layer is not present, and said layer(s) representing at least 50% of the total thickness of the tube.
A method for determining a transmissivity of an atmosphere within a chamber , comprising: obtaining, at a light detector , a transmissivity measurement for a test beam that passes through the atmosphere in the chamber and into the light detector; obtaining a transfer standard measurement at the light detector by deflecting the test beam to be received at the light detector without passing through the atmosphere in the chamber; comparing the transfer standard measurement to a measurement of the chamber obtained during a clear air condition within the chamber; and determining the transmissivity of the atmosphere from the transmissivity measurement and the transfer standard measurement. obtaining, at a light detector , a transmissivity measurement for a test beam that passes through the atmosphere in the chamber and into the light detector; obtaining a transfer standard measurement at the light detector by deflecting the test beam to be received at the light detector without passing through the atmosphere in the chamber; comparing the transfer standard measurement to a measurement of the chamber obtained during a clear air condition within the chamber; and determining the transmissivity of the atmosphere from the transmissivity measurement and the transfer standard measurement.
A method for continuously manufacturing aerosol generating articles , the method comprising: (i) providing a continuous web of an aerosol generating substrate ; (ii) separating a continuous strip of aerosol generating substrate from the continuous web of aerosol generating substrate provided in step (i), the continuous strip having a substantially flat surface; (iii) applying at least one susceptor patch to the substantially flat surface of the continuous strip of aerosol generating substrate obtained by step (ii); (iv) cutting the continuous web of aerosol generating substrate to form a plurality of aerosol generating strips ; and (v) combining the at least one susceptor patch and the continuous strip of aerosol generating substrate obtained by step (iii) with the plurality of aerosol generating strips obtained by step (iv) to form a continuous rod . (i) providing a continuous web of an aerosol generating substrate ; (ii) separating a continuous strip of aerosol generating substrate from the continuous web of aerosol generating substrate provided in step (i), the continuous strip having a substantially flat surface; (iii) applying at least one susceptor patch to the substantially flat surface of the continuous strip of aerosol generating substrate obtained by step (ii); (iv) cutting the continuous web of aerosol generating substrate to form a plurality of aerosol generating strips ; and (v) combining the at least one susceptor patch and the continuous strip of aerosol generating substrate obtained by step (iii) with the plurality of aerosol generating strips obtained by step (iv) to form a continuous rod .
A method of preparing a cathode for a secondary battery, comprising the steps of: 1) treating a cathode active material with an aqueous solution comprising water and at least one base having a formula of R 1 R 2 R 3 N to form a first suspension; 2) dispersing a binder material and a conductive agent in water to form a second suspension; 3) mixing the first suspension with the second suspension to obtain a third suspension; 4) homogenizing the third suspension by a homogenizer to obtain a homogenized cathode slurry; 5) applying the homogenized cathode slurry on a current collector to form a coated film on the current collector; and 6) drying the coated film on the current collector to form the cathode, wherein each of R 1 , R 2 and R 3 is independently H, C 1-6 alkyl, C 3-6 cycloalkyl, C 1-6 heteroalkyl, C 4-6 cycloalkylalkyl, C 2-6 alkoxyalkyl, or C 3-6 alkoxyalkoxyalkyl, where the C 1-6 alkyl, C 3-6 cycloalkyl, C 1-6 heteroalkyl, C 4-6 cycloalkylalkyl, C 2-6 alkoxyalkyl, or C 3-6 alkoxyalkoxyalkyl is optionally substituted with one or more substituents, where each of the substituents is independently alkyl or cycloalkyl; and wherein the boiling point of the base is lower than 100 °C at a pressure of 1 atm. 1) treating a cathode active material with an aqueous solution comprising water and at least one base having a formula of R 1 R 2 R 3 N to form a first suspension; 2) dispersing a binder material and a conductive agent in water to form a second suspension; 3) mixing the first suspension with the second suspension to obtain a third suspension; 4) homogenizing the third suspension by a homogenizer to obtain a homogenized cathode slurry; 5) applying the homogenized cathode slurry on a current collector to form a coated film on the current collector; and 6) drying the coated film on the current collector to form the cathode,
A kit of parts for providing a covering element (10, 10', 10") for covering a hinge part of a roof window, said kit of parts comprising: a covering element (10, 10', 10") having an exterior side and an interior side, wherein an engraved surface (11, 11', 11") of the interior side comprises at least one cavity extending into the engraved surface (11, 11', 11") at a polar angle α 1 , a connection element (20, 20', 20") adapted for connecting the covering element (10, 10', 10") to the hinge part, and an adhesive adapted to be introduced into the at least one cavity and to be provided in a layer between the engraved surface (11, 11', 11") of the covering element (10, 10', 10") and the connection element (20, 20', 20"), such that the adhesive forms an anchor part (25, 25', 25") of the connection element (20, 20', 20"), which provides a strong attachment between the covering element (10, 10', 10") and the connection element (20, 20', 20"). a covering element (10, 10', 10") having an exterior side and an interior side, wherein an engraved surface (11, 11', 11") of the interior side comprises at least one cavity extending into the engraved surface (11, 11', 11") at a polar angle α 1 , a connection element (20, 20', 20") adapted for connecting the covering element (10, 10', 10") to the hinge part, and an adhesive adapted to be introduced into the at least one cavity and to be provided in a layer between the engraved surface (11, 11', 11") of the covering element (10, 10', 10") and the connection element (20, 20', 20"), such that the adhesive forms an anchor part (25, 25', 25") of the connection element (20, 20', 20"), which provides a strong attachment between the covering element (10, 10', 10") and the connection element (20, 20', 20").
An absorbent article comprising a liquid pervious topsheet , a liquid impervious backsheet , and an absorbent core positioned between the liquid pervious topsheet and the liquid impervious backsheet; said absorbent article having a first and second longitudinal edge and a first and second transverse edge ; wherein the absorbent core comprises a top core sheet , a back core sheet , and absorbent material arranged partially between the top core sheet and the back core sheet; wherein at least one of the top core sheet and the back core sheet comprises at least one attachment portion (315; 325) which is attached to the other one of the top core sheet and the back core sheet forming at least one attachment zone , and at least one edge portion (316, 317; 326, 327) having at least one free edge (313, 314; 323, 324) and covering a portion of the absorbent material; wherein seen in a top view of the absorbent core, the top core sheet has a total surface area of S1, the back core sheet has a total surface area of S2, the absorbent core has a surface area of S0 defined by an area covered by the absorbent material plus an area of the at least one attachment zone, wherein S1 is smaller than 90% of S0 and/or S2 is smaller than 90% of S0.
An isolated peptide 35 amino acids in length or less for use in the treatment of melanoma excluding uveal melanoma, wherein the peptide comprises the sequence of SLC45A2 382-390 (SEQ ID NO:1) or SLC45A2 393-402 (SEQ ID NO:2) or a sequence having at least 90 % identity to SLC45A2 382-390 (SEQ ID NO:1) or SLC45A2 393-402 (SEQ ID NO:2), wherein the peptide selectively binds HLA-A2, HLA-A*0201, HLA-A24, or HLA-A*2402.
A door barricade-device , comprising: a movable stop-device , the stop-device including a pivotable cam and an arm extending from the cam ; and a spring mechanically linked to the stop-device and biasing the stop-device to a barricade-position, in which the arm prevents a door from opening; wherein the cam and spring are arranged to require not more than three pounds of force applied to the free-end of the arm in order to move the stop-device to a position in which the spring will then move the stop-device to the barricade-position; wherein a free-end of the arm moves away from a floor adjacent to the door when the stop-device moves toward the barricade-position from a reserve-position, in which the arm does not prevent the door from opening; and further comprising a bracket overlapping the arm when the stop-device is in the barricade-position, but not overlapping the arm when the stop-device is in the reserve-position; wherein when the stop-device is in the barricade-position, the arm does not span the width of the door . a movable stop-device , the stop-device including a pivotable cam and an arm extending from the cam ; and a spring mechanically linked to the stop-device and biasing the stop-device to a barricade-position, in which the arm prevents a door from opening; wherein the cam and spring are arranged to require not more than three pounds of force applied to the free-end of the arm in order to move the stop-device to a position in which the spring will then move the stop-device to the barricade-position; wherein a free-end of the arm moves away from a floor adjacent to the door when the stop-device moves toward the barricade-position from a reserve-position, in which the arm does not prevent the door from opening; and further comprising a bracket overlapping the arm when the stop-device is in the barricade-position, but not overlapping the arm when the stop-device is in the reserve-position; wherein when the stop-device is in the barricade-position, the arm does not span the width of the door .
A communication apparatus, wherein the communication apparatus is configured to perform spatial reuse, SR, transmission, comprising: a communication part configured to transmit a packet on the basis of information regarding an interference signal; and a control part configured to control a backoff time while the interference signal is being observed on the basis of at least one of interference power or information regarding a communication distance to a transmission destination of the packet; wherein the control part is configured to set a backoff time in which an additional backoff time is added to a first backoff time when transmitting a packet while an interference signal is not observed; and wherein the control part is configured to set a backoff time in which an additional backoff time is added to the first backoff time depending on a result of packet transmission based on information regarding an interference signal. a communication part configured to transmit a packet on the basis of information regarding an interference signal; and a control part configured to control a backoff time while the interference signal is being observed on the basis of at least one of interference power or information regarding a communication distance to a transmission destination of the packet; wherein the control part is configured to set a backoff time in which an additional backoff time is added to a first backoff time when transmitting a packet while an interference signal is not observed; and wherein the control part is configured to set a backoff time in which an additional backoff time is added to the first backoff time depending on a result of packet transmission based on information regarding an interference signal.
A method comprising: retrieving , by a server, from a global information server configured to receive and store various versions of global information associated with a network service, current version information of the current global information, wherein the global information comprises a routing table or configuration data for IP address translation; retrieving , by the server, the current global information associated with the network service from the global information server based on the current version information; updating , by the server, a period of validity of the current version information based on a status of communication with the global information server; and suspending , by the server, the network service associated with the current global information when detecting that the period of validity of the current version information has expired. retrieving , by a server, from a global information server configured to receive and store various versions of global information associated with a network service, current version information of the current global information, wherein the global information comprises a routing table or configuration data for IP address translation; retrieving , by the server, the current global information associated with the network service from the global information server based on the current version information; updating , by the server, a period of validity of the current version information based on a status of communication with the global information server; and suspending , by the server, the network service associated with the current global information when detecting that the period of validity of the current version information has expired.
A method comprising: displaying information in a first area of a touch-sensitive display of an electronic device ; detecting invocation of a controller; displaying the controller in a second area of the touch-sensitive display without covering or displacing the displayed information in the first area ; detecting a touch associated with the second area; detecting movement of the touch associated with the second area; and in response to detecting movement of the touch, moving an indicator within the information in a corresponding direction based on one of a multiple and fraction of a distance the touch is moved to control the indicator within the information characterized in that ; the method further comprising displaying, in the second area of the touch-sensitive display, selectable editing features associated with editing the displayed information; wherein, when selection of a selectable editing feature is detected, a corresponding editing function is performed and the displayed information is edited accordingly. displaying information in a first area of a touch-sensitive display of an electronic device ; detecting invocation of a controller; displaying the controller in a second area of the touch-sensitive display without covering or displacing the displayed information in the first area ; detecting a touch associated with the second area; detecting movement of the touch associated with the second area; and in response to detecting movement of the touch, moving an indicator within the information in a corresponding direction based on one of a multiple and fraction of a distance the touch is moved to control the indicator within the information characterized in that ; the method further comprising displaying, in the second area of the touch-sensitive display, selectable editing features associated with editing the displayed information; wherein, when selection of a selectable editing feature is detected, a corresponding editing function is performed and the displayed information is edited accordingly.
A controller comprising: input means for receiving a trajectory parameter signal comprising one or more parameters indicative of a trajectory of a vehicle , wherein the trajectory of the vehicle comprises an area between parallel tracks which project an area predicted to be occupied by the vehicle , and further wherein the one or more parameters indicative of the trajectory of the vehicle includes a radius of curvature of the trajectory ; and processing means arranged to set, in dependence on the one or more parameters including the radius of curvature of the trajectory , a distance from the trajectory for a boundary of an alert zone , where the alert zone boundary is, in use, determinative of the minimum distance from the trajectory below which a detected object will trigger an alert. input means for receiving a trajectory parameter signal comprising one or more parameters indicative of a trajectory of a vehicle , wherein the trajectory of the vehicle comprises an area between parallel tracks which project an area predicted to be occupied by the vehicle , and further wherein the one or more parameters indicative of the trajectory of the vehicle includes a radius of curvature of the trajectory ; and processing means arranged to set, in dependence on the one or more parameters including the radius of curvature of the trajectory , a distance from the trajectory for a boundary of an alert zone , where the alert zone boundary is, in use, determinative of the minimum distance from the trajectory below which a detected object will trigger an alert.
A method of verifying the operational status of a neutron detecting device, the method characterized by : a. at least partially enclosing a neutron detecting device including a neutron detector in a container having outer walls comprising a thermal neutron absorber material; b. determining an attenuated neutron count rate of the neutron detecting device ; c. removing the neutron detecting device from the container ; d. exposing the neutron detecting device to neutron radiation originating from cosmic ray background; e. determining an operational neutron count rate of the neutron detecting device ; f. determining a ratio between the operational neutron count rate and the attenuated neutron count rate; and g. verifying the operational status of the neutron detecting device if the operational neutron count rate is higher than the attenuated neutron count rate by at least a predetermined amount and the ratio is in a predetermined range. a. at least partially enclosing a neutron detecting device including a neutron detector in a container having outer walls comprising a thermal neutron absorber material; b. determining an attenuated neutron count rate of the neutron detecting device ; c. removing the neutron detecting device from the container ; d. exposing the neutron detecting device to neutron radiation originating from cosmic ray background; e. determining an operational neutron count rate of the neutron detecting device ; f. determining a ratio between the operational neutron count rate and the attenuated neutron count rate; and g. verifying the operational status of the neutron detecting device if the operational neutron count rate is higher than the attenuated neutron count rate by at least a predetermined amount and the ratio is in a predetermined range.