mhurhangee/ep-ind-claims huggingface dataset:
A method of providing a reusable closure for packages in the presence of moisture from refrigerated or frozen food packing environments, comprising (a) providing a package having a folding portion and a main portion wherein the folding portion is able to be folded over to cover the main portion of the package, (b) folding the folding portion over to close the package and (c) applying an adhesive article to the folded portion and the main portion so that the package remains closed, wherein the adhesive article comprises (i) a moisture resistant substrate having a first and second surface, wherein said substrate has a thickness of 38.1 μm to 190.5 μm (1.5 mil to 7.5 mil), wherein the substrate is selected from the group consisting of polyolefins, and (ii) a removable adhesive covering at least a first portion of the first surface, wherein the removable adhesive comprises a mixture of a polybutadiene elastomer, a polyisoprene elastomer and a tackifying system, wherein the polybutadiene elastomer and the polyisoprene elastomer are immiscible, wherein the tackifying system consists of tackifiers that are miscible with the polyisoprene and that cause the temperature differential between the glass transition temperature peaks in the DMS curve to increase and the amplitude of the tangent delta for the second glass transition temperature to also increase, and wherein the weight ratio of the polybutadiene-containing constituents of the mixture to the polyisoprene-containing constituents of the mixture is from 1.3:1 to 1.5:1 and such that there are provided two peaks on the plot of tangent delta as a function of temperature in °C (DMS curve) for the mixture, wherein the removable adhesive has a Moist Loop Test result of at least 0.8 N/25 mm at a test plate temperature of 5 °C, and wherein the tackifiers are obtained by the polymerization of a stream of aliphatic petroleum derivatives in form of dienes and mono-olefins containing 5 or 6 carbon atoms, the dienes being selected from piperylene and/or isoprene, and the tackifiers contain 40 % or more by weight of said polymerized dienes, and wherein the Moist Loop Test is carried out according the method outlined in the description.
A variable stator vane control system, comprising: a variable stator vane; the variable stator vane positioned by an actuator and a trimmer motor; a resolver to determine a position of the variable stator vane; a controller in communication with the resolver, the actuator, and the trimmer motor to prevent over travel of the variable stator vane; a plurality of variable stator vanes positioned on an actuation ring, wherein the trimmer motor is in communication with the actuation ring; a plurality of actuation rings, wherein the actuator is in communication with the plurality of actuation rings; and a linkage assembly in communication with the variable stator vane, the actuator, and the trimmer motor, wherein the linkage assembly comprises a crossbar in communication with the actuator, wherein the linkage assembly comprises a ring arm in communication with the crossbar and the trimmer motor, and wherein the linkage assembly comprises a plurality of ring arms, characterised in that the system comprises several trimmer motors, each ring arm being in communication with an actuation ring and with the crossbar, each trimmer motor allowing for manoeuvring a ring arm and hence the corresponding actuation ring, and the actuator allowing for manoeuvring the crossbar and hence the ring arms and the actuation rings. a variable stator vane; the variable stator vane positioned by an actuator and a trimmer motor; a resolver to determine a position of the variable stator vane; a controller in communication with the resolver, the actuator, and the trimmer motor to prevent over travel of the variable stator vane; a plurality of variable stator vanes positioned on an actuation ring, wherein the trimmer motor is in communication with the actuation ring; a plurality of actuation rings, wherein the actuator is in communication with the plurality of actuation rings; and a linkage assembly in communication with the variable stator vane, the actuator, and the trimmer motor, wherein the linkage assembly comprises a crossbar in communication with the actuator, wherein the linkage assembly comprises a ring arm in communication with the crossbar and the trimmer motor, and wherein the linkage assembly comprises a plurality of ring arms, characterised in that the system comprises several trimmer motors, each ring arm being in communication with an actuation ring and with the crossbar, each trimmer motor allowing for manoeuvring a ring arm and hence the corresponding actuation ring, and the actuator allowing for manoeuvring the crossbar and hence the ring arms and the actuation rings.
An agent that causes T cells that produce IL-4 to accumulate in the eye for use in the treatment of dry age-related macular degeneration, wherein said agent is Copolymer-1.
Use of an amide derivative for the extraction of cobalt, wherein the amide derivative is represented by the following general formula: wherein, R 1 and R 2 each represent the same or different alkyl groups; the alkyl group is optionally a straight chain or a branched chain; R 3 represents a hydrogen atom or an alkyl group; and R 4 represents an amino acid side chain. wherein, R 1 and R 2 each represent the same or different alkyl groups; the alkyl group is optionally a straight chain or a branched chain; R 3 represents a hydrogen atom or an alkyl group; and R 4 represents an amino acid side chain.
A dispenser for interfolded napkins, the dispenser, comprising a container having a bottom wall extending in a horizontal plane and side walls extending from the bottom wall in a vertical direction perpendicular thereto and defining a dispensing opening opposite to the bottom wall, the side walls surrounding a rectangular supporting surface formed by said bottom wall, for supporting a stack of interfolded napkins, the dispenser further comprising a weight arranged between said side walls so as to form a stack-supported lid of the dispenser, the weight defining a dispensing mouth and being movable between an upper position adjacent to the dispensing opening of the container, and a lower position adjacent to the supporting surface of the container, the dispenser comprising a weight control means interconnecting the weight and the container, and extending inside the container between a container connection and a weight connection, said weight control means restricting the movement of the weight in a vertical direction along said side walls so as to determine the location of said upper position of said weight, and wherein the container defines a bottom portion comprising said bottom wall, and a wall portion comprising at least a part of the side walls, said bottom portion being removably and reattachably attached to the wall portion for refill of napkins from the bottom of the dispenser.
A method comprising: storing, at a counter, a first value indicating a count of read operations in which a bit error is detected in data associated with a first address of a memory array; and in response to the first value exceeding a first threshold value, remapping the first address to a second address using a controller that is coupled to the memory array, wherein the first address corresponds to a first element of the memory array, wherein the second address corresponds to a second element that is included at a memory within the controller, and wherein remapping the first address comprises, in response to receiving a first read request for data located at the first address, replacing a first bit value read from the first element with a second bit value read from the second element to generate modified data, the modified data including a plurality of bit values from the first element and the second bit value. storing, at a counter, a first value indicating a count of read operations in which a bit error is detected in data associated with a first address of a memory array; and in response to the first value exceeding a first threshold value, remapping the first address to a second address using a controller that is coupled to the memory array, wherein the first address corresponds to a first element of the memory array, wherein the second address corresponds to a second element that is included at a memory within the controller, and wherein remapping the first address comprises, in response to receiving a first read request for data located at the first address, replacing a first bit value read from the first element with a second bit value read from the second element to generate modified data, the modified data including a plurality of bit values from the first element and the second bit value.
A computer implemented method for securely controlling access to an external storage device, the method comprising the steps of: obtaining parameters P associated with the device, a time variable, a name N representing an ascription, and a unique identification value I; encrypting a function of the P, N, I, and Time values with a symmetric key K to generate a first portion of an unchangeable signature; encrypting the symmetric key K with a shared key to generate a second portion of the unchangeable signature; combining the first and second portions along with the value of N, I and Time into an unchangeable signature uniquely identifying the device and storing the unchangeable signature on the device; controlling access to the storage device by: extracting (511, 512) information including an unchangeable signature from the storage device that uniquely identifies the storage device; and validating the unique identification information; and applying a security policy that is based at least in part on the unique identification information. obtaining parameters P associated with the device, a time variable, a name N representing an ascription, and a unique identification value I; encrypting a function of the P, N, I, and Time values with a symmetric key K to generate a first portion of an unchangeable signature; encrypting the symmetric key K with a shared key to generate a second portion of the unchangeable signature; combining the first and second portions along with the value of N, I and Time into an unchangeable signature uniquely identifying the device and storing the unchangeable signature on the device; controlling access to the storage device by: extracting (511, 512) information including an unchangeable signature from the storage device that uniquely identifies the storage device; and validating the unique identification information; and applying a security policy that is based at least in part on the unique identification information. extracting (511, 512) information including an unchangeable signature from the storage device that uniquely identifies the storage device; and validating the unique identification information; and applying a security policy that is based at least in part on the unique identification information.
A light sheet optical system comprising a light sheet generating element and a modulating element, wherein the light sheet generating element and the modulating element are configured to create a non-diffractive or quasi non-diffractive and/or propagation invariant light sheet with an asymmetric intensity profile in a direction which is transverse to both a direction of propagation of the light sheet and a direction in which a beam is expanded to form the light sheet, and wherein the modulating element is positioned in an illumination path of the light sheet optical system before or after the light sheet generating element, or wherein the modulating element is integrated with the light sheet generating element.
A plasma processing apparatus configured to perform a plasma process on a processing target object, comprising a processing vessel having a processing space formed therein; a mounting table provided within the processing space, and configured to mount the processing target object thereon; a dielectric member, disposed at the processing vessel to close the processing space, having an internal space and communication holes (16d, 16e) through which the internal space is allowed to communicate with the processing space; a first electrode and a second electrode provided within the dielectric member and arranged to face each other with the internal space therebetween; a first gas supply device configured to supply a first processing gas for the plasma process into the internal space; a first high frequency power supply configured to supply a first high frequency power to the first electrode and the second electrode to generate a first plasma of the first processing gas supplied into the internal space; characterised by further comprising a power splitter configured to split the first high frequency power inputted from the first high frequency power supply into a first split power and a second split power, and distribute the first split power and the second split power to the first electrode and the second electrode, respectively; a depressurizing device configured to depressurize the processing space to introduce the first processing gas and radicals in the first plasma into the processing space from the internal space through the communication holes (16d, 16e); a second high frequency power supply configured to supply a second high frequency power to the mounting table to generate a second plasma of the first processing gas introduced into the processing space and to attract ions in the second plasma into the processing target object; and a control unit configured to adjust, by controlling a total amount of the first split power supplied to the first electrode and the second split power supplied to the second electrode, an amount of the radicals in the first plasma introduced into the processing space from the internal space through the communication holes (16d, 16e) and adjust, by the radicals, an amount of radicals in the second plasma; and configured to adjust, by controlling a ratio between the first split power and the second split power, an amount of electrons in the first plasma introduced into the processing space from the internal space through the communication holes (16d, 16e) and adjust, by the electrons, an amount of the ions in the second plasma.
Exhaust gas heat transfer device - having a heat transfer region, - having a bypass channel bypassing the heat transfer region, - having a bypass valve which according to setting divides an exhaust gas flow between the heat transfer region and the bypass channel, - wherein in the heat transfer region is disposed a stacked plate cooler with a plurality of stacked plates (7, 7'), and the bypass channel is mounted, in particular soldered at an outer stacked plate of the stacked plate cooler, characterised in - that, connected with the outer stacked plate, is provided a U-shaped profile, which together form the bypass channel, wherein the U-shaped profile has little ridges at its U-legs, in order to be able to form an improved soldering surface to the outer stacked plate. - having a heat transfer region, - having a bypass channel bypassing the heat transfer region, - having a bypass valve which according to setting divides an exhaust gas flow between the heat transfer region and the bypass channel, - wherein in the heat transfer region is disposed a stacked plate cooler with a plurality of stacked plates (7, 7'), and the bypass channel is mounted, in particular soldered at an outer stacked plate of the stacked plate cooler, characterised in - that, connected with the outer stacked plate, is provided a U-shaped profile, which together form the bypass channel, wherein the U-shaped profile has little ridges at its U-legs, in order to be able to form an improved soldering surface to the outer stacked plate.
A vehicle comprising: a processor configured to: receive a first image from a first image capture component and a second image from a second image capture component, the first image capture component and the second image capture component being external to the vehicle; generate a composite image using the first image and the second image, the first image illustrating a first perspective view of the vehicle and the second image illustrating a second perspective view of the vehicle, characterized in that the processor generates the composite image by: comparing the first perspective view in the first image and the second perspective view in the second image; and combining the first image and the second image in response to determining that the first perspective view varies from the second perspective view by a threshold value; and output the composite image on a display of the vehicle. a processor configured to: receive a first image from a first image capture component and a second image from a second image capture component, the first image capture component and the second image capture component being external to the vehicle; generate a composite image using the first image and the second image, the first image illustrating a first perspective view of the vehicle and the second image receive a first image from a first image capture component and a second image from a second image capture component, the first image capture component and the second image capture component being external to the vehicle; generate a composite image using the first image and the second image, the first image illustrating a first perspective view of the vehicle and the second image illustrating a second perspective view of the vehicle, characterized in that the processor generates the composite image by: comparing the first perspective view in the first image and the second perspective view in the second image; and combining the first image and the second image in response to determining that the first perspective view varies from the second perspective view by a threshold value; and output the composite image on a display of the vehicle. comparing the first perspective view in the first image and the second perspective view in the second image; and combining the first image and the second image in response to determining that the first perspective view varies from the second perspective view by a threshold value; and
A rechargeable battery comprising: a case; an electrode assembly received by the case; a cap plate for closing and sealing an opening of the case; an insulating cover made of an insulating material, arranged on and covering the cap plate, wherein the case has a hexahedral shape including first and second main sides (261, 263), first and second lateral sides (262, 264) and a bottom side and insulating tapes (92, 93) made of an insulating material and covering the main sides (261, 263) and the lateral sides (262, 264) of the case wherein the insulating tapes (92, 93) overlap each other on the first and second lateral sides (262, 264), characterized in that the insulating cover overlaps the insulating tapes (92, 93) and wherein a first of the insulating tapes (92, 93) comprises a bent portion combined to the bottom side wherein a width of the bent portion is greater than a width of the bottom side to which the bent portion is combined. a case; an electrode assembly received by the case; a cap plate for closing and sealing an opening of the case; an insulating cover made of an insulating material, arranged on and covering the cap plate, wherein the case has a hexahedral shape including first and second main sides (261, 263), first and second lateral sides (262, 264) and a bottom side and insulating tapes (92, 93) made of an insulating material and covering the main sides (261, 263) and the lateral sides (262, 264) of the case wherein the insulating tapes (92, 93) overlap each other on the first and second lateral sides (262, 264), characterized in that the insulating cover overlaps the insulating tapes (92, 93) and wherein a first of the insulating tapes (92, 93) comprises a bent portion combined to the bottom side wherein a width of the bent portion is greater than a width of the bottom side to which the bent portion is combined.
An LED lighting device for lighting the cavity of an oven, comprising: - a casing having a back wall and an open side opposite said back wall, - a printed circuit board bearing a plurality of LEDs spaced apart from one another in a longitudinal direction, in which the printed circuit board is attached to the open side of said casing and is removed from said back wall such as to form a gap between said printed circuit board and said back wall, and - an air supply duct for supplying a cooling airflow into said gap, characterised by - a plurality of light guides that pass through respective holes in said back wall, in which the light guides emerge outside said casing orthogonally to said back wall and have respective internal frontal extremities facing the respective LEDs. - a casing having a back wall and an open side opposite said back wall, - a printed circuit board bearing a plurality of LEDs spaced apart from one another in a longitudinal direction, in which the printed circuit board is attached to the open side of said casing and is removed from said back wall such as to form a gap between said printed circuit board and said back wall, and - an air supply duct for supplying a cooling airflow into said gap, - a plurality of light guides that pass through respective holes in said back wall, in which the light guides emerge outside said casing orthogonally to said back wall and have respective internal frontal extremities facing the respective LEDs.
A method for a source access router to share capability information in a mobile communication network for use in making handoff decisions among access routers, comprising: detecting a condition that a mobile terminal presently served by the source access router is entering an area served by a potential target access router; transmitting a network address of the source access router from the source access router through the mobile terminal to the potential target access router; characterised in that the method further comprises: receiving capability information at the source access router from the potential target access router and transmitting capability information from the source access router to the potential target access router, such that each access router learns capabilities of the other access router. detecting a condition that a mobile terminal presently served by the source access router is entering an area served by a potential target access router; transmitting a network address of the source access router from the source access router through the mobile terminal to the potential target access router; characterised in that the method further comprises: receiving capability information at the source access router from the potential target access router and transmitting capability information from the source access router to the potential target access router, such that each access router learns capabilities of the other access router.