mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication, comprising: identifying , by a user equipment, UE, a propagated start point S' of a first portion of at least one time-frequency resource, wherein the propagated start point S' equals S + tc, wherein S is a network start point of the first portion and tc is a propagation delay between the UE and a base station in downlink communication; beginning , by the UE, transmission of a device-to-device, D2D, signal from a transmission start point, the transmission start point being S' + X, wherein X is a cellular communication system downlink timing offset; identifying , by the UE, a propagated end point E' of a last portion of the at least one time-frequency resource, wherein the propagated end point E' equals E + tc, wherein E is a network end point of the last portion; and ending , by the UE, transmission of the D2D signal at a transmission end point, the transmission end point being E' - Y, wherein Y is a cellular communication system downlink timing advance; wherein a number of D2D symbols n transmitted on the at least one time-frequency resource to be used for D2D communication is provided by the following equation: n = ⌊ G − X − Y / SL ⌋ , wherein G is a difference between an allocated D2D resource end point and an allocated D2D resource start point, and SL is a symbol length. identifying , by a user equipment, UE, a propagated start point S' of a first portion of at least one time-frequency resource, wherein the propagated start point S' equals S + tc, wherein S is a network start point of the first portion and tc is a propagation delay between the UE and a base station in downlink communication; beginning , by the UE, transmission of a device-to-device, D2D, signal from a transmission start point, the transmission start point being S' + X, wherein X is a cellular communication system downlink timing offset; identifying , by the UE, a propagated end point E' of a last portion of the at least one time-frequency resource, wherein the propagated end point E' equals E + tc, wherein E is a network end point of the last portion; and ending , by the UE, transmission of the D2D signal at a transmission end point, the transmission end point being E' - Y, wherein Y is a cellular communication system downlink timing advance; wherein a number of D2D symbols n transmitted on the at least one time-frequency resource to be used for D2D communication is provided by the following equation: n = ⌊ G − X − Y / SL ⌋ , wherein G is a difference between an allocated D2D resource end point and an allocated D2D resource start point, and SL is a symbol length.
A non-transitory computer-readable storage medium storing computer-executable instructions that when executed by a computer cause the computer to perform functions, the instructions comprising instructions for: identifying a record that has been stored in a primary data store for at least a retention period prescribed for the record, where the record is an instance of an object and includes a management date representing the creation or insertion date of the record and metadata for the object, including determining if the record has been stored for more than the retention period based on the management date and the present date, and wherein the retention period is prescribed based on a type of the object and is stored in the metadata; accessing the metadata stored on the record to identify archive eligibility based on the type of the object; evaluating the record to determine if the archive eligibility criteria for the record are met, wherein the record includes an archive switch value which is set to No by default; when the archive eligibility criteria is met , marking the record as eligible for archiving by changing the archive switch value to Yes; and when the archive eligibility criteria is not met , marking the record as not eligible for archiving by leaving the archive switch value as No. identifying a record that has been stored in a primary data store for at least a retention period prescribed for the record, where the record is an instance of an object and includes a management date representing the creation or insertion date of the record and metadata for the object, including determining if the record has been stored for more than the retention period based on the management date and the present date, and wherein the retention period is prescribed based on a type of the object and is stored in the metadata; accessing the metadata stored on the record to identify archive eligibility based on the type of the object; evaluating the record to determine if the archive eligibility criteria for the record are met, wherein the record includes an archive switch value which is set to No by default; when the archive eligibility criteria is met , marking the record as eligible for archiving by changing the archive switch value to Yes; and when the archive eligibility criteria is not met , marking the record as not eligible for archiving by leaving the archive switch value as No.
Method for locating faults along an energy supply chain for DC current systems , in which at least one reference short circuit (A, B, C) is generated at a known reference fault location (18', 18", 18"') of the energy supply chain and at least one physical property of the energy supply chain is determined during the reference short circuit, in which at least one physical property of the energy supply chain is determined during an operational short circuit (D) and in which a fault location of the operational short circuit (D) is determined, taking into account at least the determined physical property during the reference short circuit and the operational short circuit and the reference fault location.
A bucket , comprising: a base ; a side wall extending from the base; and an outwardly and downwardly directed flange at the top of the side wall opposite the base, wherein the side wall includes a portion which is concave as seen from the outside of the bucket and intended to face and possibly rest against the leg or hip of a user, and wherein the side wall at said portion further includes a plurality of reinforcements extending from the flange and towards the base, characterized in that the reinforcements have the same or substantially the same extension in the downward direction as the flange has at another portion of the side wall. a base ; a side wall extending from the base; and an outwardly and downwardly directed flange at the top of the side wall opposite the base, wherein the side wall includes a portion which is concave as seen from the outside of the bucket and intended to face and possibly rest against the leg or hip of a user, and wherein the side wall at said portion further includes a plurality of reinforcements extending from the flange and towards the base, characterized in that the reinforcements have the same or substantially the same extension in the downward direction as the flange has at another portion of the side wall.
A method for calibrating a wearable display device , the method comprising: displaying an image with a plurality of pixels for each of three primary colors using the wearable device; determining RGB and XYZ values for each of the plurality of pixels of the image displayed by the wearable device; selecting a subset of the plurality of pixels to form a group of grid points; dividing the image into a group of tile regions, each tile region including a grid point; determining grid XYZ values for each grid point, based on averaging XYZ values of all pixels in a corresponding tile region; determining a grid RGB-to-XYZ conversion matrix for each grid point that converts the RGB values at the grid point to the grid XYZ values of the grid point; and determining a correction matrix for the plurality of pixels by: for each pixel that is a grid point, multiplying an inverse of the grid RGB-to-XYZ conversion matrix for the grid point with an sRGB-to-XYZ conversion matrix to form grid point correction matrix elements; and for each pixel that is not a grid point, forming pixel correction matrix elements by interpolating using the grid point correction matrix elements from adjacent grid points. displaying an image with a plurality of pixels for each of three primary colors using the wearable device; determining RGB and XYZ values for each of the plurality of pixels of the image displayed by the wearable device; selecting a subset of the plurality of pixels to form a group of grid points; dividing the image into a group of tile regions, each tile region including a grid point; determining grid XYZ values for each grid point, based on averaging XYZ values of all pixels in a corresponding tile region; determining a grid RGB-to-XYZ conversion matrix for each grid point that converts the RGB values at the grid point to the grid XYZ values of the grid point; and determining a correction matrix for the plurality of pixels by: for each pixel that is a grid point, multiplying an inverse of the grid RGB-to-XYZ conversion matrix for the grid point with an sRGB-to-XYZ conversion matrix to form grid point correction matrix elements; and for each pixel that is not a grid point, forming pixel correction matrix elements by interpolating using the grid point correction matrix elements from adjacent grid points. for each pixel that is a grid point, multiplying an inverse of the grid RGB-to-XYZ conversion matrix for the grid point with an sRGB-to-XYZ conversion matrix to form grid point correction matrix elements; and for each pixel that is not a grid point, forming pixel correction matrix elements by interpolating using the grid point correction matrix elements from adjacent grid points.
A computer implemented method to provide permissions for users from different organizations to access health information deposited in a plurality of healthcare datasets (104a-104p) having different owners who control access to the datasets they own, the method comprising the steps of: defining an information policy for each of the healthcare datasets, wherein the information policy comprises information access permissions set by the owners of each of the datasets; defining an organization policy for each of the healthcare datasets, wherein the organization policy comprises license permissions for the different organizations accessing the healthcare datasets; defining a user account master policy for each of the healthcare datasets, wherein the user account master policy comprises account permissions selectively assigned to users of the different organizations; and generating a master user policy for each of the users based on the information policy, the organization policy, and the user account master policy, wherein the master user policy comprises access control permissions to provide each of the users from the different organizations access to the healthcare datasets. defining an information policy for each of the healthcare datasets, wherein the information policy comprises information access permissions set by the owners of each of the datasets; defining an organization policy for each of the healthcare datasets, wherein the organization policy comprises license permissions for the different organizations accessing the healthcare datasets; defining a user account master policy for each of the healthcare datasets, wherein the user account master policy comprises account permissions selectively assigned to users of the different organizations; and generating a master user policy for each of the users based on the information policy, the organization policy, and the user account master policy, wherein the master user policy comprises access control permissions to provide each of the users from the different organizations access to the healthcare datasets.
A consumable cartridge for a particle sorter system, the consumable cartridge comprising: an inlet for receiving a particle-containing fluid; a microfluidic chip comprising: an input channel in fluidic connection with the inlet; and a particle sorter junction in fluidic connection with the input channel and comprising an output positive channel and an output negative channel ; and first and second outlets in fluidic connection with the output positive channel and the output negative channel respectively, for discharging the fluid from the consumable cartridge, such that at least one enclosed fluidic path is provided in the consumable cartridge between the inlet and the first and second outlets , the consumable cartridge characterised in that the at least one fluidic path comprises at least one of: a first flexible tube connected between the output positive channel and the first outlet ; and a second flexible tube connected between the output negative channel and the second outlet , the first and/or second flexible tubes being deformable to enable unclogging of particles in the particle sorter junction in operation. an inlet for receiving a particle-containing fluid; a microfluidic chip comprising: an input channel in fluidic connection with the inlet; and a particle sorter junction in fluidic connection with the input channel and comprising an output positive channel and an output negative channel ; an input channel in fluidic connection with the inlet; and a particle sorter junction in fluidic connection with the input channel and comprising an output positive channel and an output negative channel ; and first and second outlets in fluidic connection with the output positive channel and the output negative channel respectively, for discharging the fluid from the consumable cartridge, such that at least one enclosed fluidic path is provided in the consumable cartridge between the inlet and the first and second outlets , the consumable cartridge characterised in that the at least one fluidic path comprises at least one of: a first flexible tube connected between the output positive channel and the first outlet ; and a second flexible tube connected between the output negative channel and the second outlet , the first and/or second flexible tubes being deformable to enable unclogging of particles in the particle sorter junction in operation. a first flexible tube connected between the output positive channel and the first outlet ; and a second flexible tube connected between the output negative channel and the second outlet , the first and/or second flexible tubes being deformable to enable unclogging of particles in the particle sorter junction in operation.
A dressing for treating a tissue site with negative pressure, the dressing comprising: a cover having an aperture ; a first layer comprising a plurality of standoffs and at least one fluid passage ; a second layer comprising a plurality of fluid elastomeric valves ; and a third layer comprising a treatment aperture ; wherein the cover , the first layer , the second layer , and the third layer are assembled in a stacked relationship with the first layer and the second layer disposed between the cover and the third layer , at least some of the elastomeric valves are exposed through the treatment aperture , the aperture in the cover is fluidly coupled to at least one fluid passage in the first layer , and the standoffs are disposed adjacent to the second layer and form a plurality of spaces between the first layer and the second layer . a cover having an aperture ; a first layer comprising a plurality of standoffs and at least one fluid passage ; a second layer comprising a plurality of fluid elastomeric valves ; and a third layer comprising a treatment aperture ; wherein the cover , the first layer , the second layer , and the third layer are assembled in a stacked relationship with the first layer and the second layer disposed between the cover and the third layer , at least some of the elastomeric valves are exposed through the treatment aperture , the aperture in the cover is fluidly coupled to at least one fluid passage in the first layer , and the standoffs are disposed adjacent to the second layer and form a plurality of spaces between the first layer and the second layer .
A method comprising: generating a first random challenge comprising a first randomly-generated code at a server ; transmitting the first random challenge and an indication of a timeout period associated with the first random challenge from the server to a client ; automatically detecting at the client that the first random challenge comprising the first randomly-generated code is no longer valid based on the timeout period; responsively transmitting a request for a new random challenge from the client to the server , wherein transmitting is performed without user intervention; generating a new random challenge comprising a new randomly-generated code at the server responsive to the request for the new random challenge received from the client , and transmitting the new randomly-generated code and an indication of a timeout period associated with the new random challenge to the client ; using the new randomly-generated code when authenticating a user with the server using one or more authentication devices (110-112) on the client , wherein during the operations of authenticating the user, an encrypted version of the new randomly-generated code, is transmitted from the client to the server , and validating the new randomly-generated code at the server to confirm the operations of authenticating the user. generating a first random challenge comprising a first randomly-generated code at a server ; transmitting the first random challenge and an indication of a timeout period associated with the first random challenge from the server to a client ; automatically detecting at the client that the first random challenge comprising the first randomly-generated code is no longer valid based on the timeout period; responsively transmitting a request for a new random challenge from the client to the server , wherein transmitting is performed without user intervention; generating a new random challenge comprising a new randomly-generated code at the server responsive to the request for the new random challenge received from the client , and transmitting the new randomly-generated code and an indication of a timeout period associated with the new random challenge to the client ; using the new randomly-generated code when authenticating a user with the server using one or more authentication devices (110-112) on the client , wherein during the operations of authenticating the user, an encrypted version of the new randomly-generated code, is transmitted from the client to the server , and validating the new randomly-generated code at the server to confirm the operations of authenticating the user.
A pour cup assembly for use in casting, comprising a cup (12; 12') and at least one lifting yoke (18, 20; 40; 80) separately attachable to the cup, the yoke including a body portion (22; 42) and first and second arms (24, 26; 44, 46) extending laterally from the body portion, each arm including a support formation (30; 48; 88), and a coupling element (32; 50; 60, 62) on at least one of the pour cup and the at least one yoke for use in coupling the pour cup and at least one yoke together.
A method of controlling a heater comprising the following steps: controlling power to the heater based on a first state model of a control program , wherein the control program is stored in a repository and is defined by at least two state models , wherein each of the at least two state models defines a subsequent state model and a transition condition associated with a respective state model to have the control program transition to the subsequent state model defined by the respective state model in response to the transition condition being satisfied, wherein each of the at least two state models includes the first state model; determining, by the control program , whether the transition condition for the first state model is satisfied,; and controlling, by the control program , power to the heater based on a second state model in response to the transition condition of the first state model being satisfied, wherein the second state model is among the at least two state models and is provided as the subsequent state model of the first state model. controlling power to the heater based on a first state model of a control program , wherein the control program is stored in a repository and is defined by at least two state models , wherein each of the at least two state models defines a subsequent state model and a transition condition associated with a respective state model to have the control program transition to the subsequent state model defined by the respective state model in response to the transition condition being satisfied, wherein each of the at least two state models includes the first state model; determining, by the control program , whether the transition condition for the first state model is satisfied,; and controlling, by the control program , power to the heater based on a second state model in response to the transition condition of the first state model being satisfied, wherein the second state model is among the at least two state models and is provided as the subsequent state model of the first state model.
Portable device for putting an inhaler into a triggering-ready state by adding energy to a mechanical energy store of the inhaler , wherein in order to put the inhaler into the triggering-ready state the inhaler can be inserted into the device and/or mechanically coupled to the device , wherein the device can be manually transported by a user or patient by hand without aids, wherein the inhaler does not have to be removed from the device in order to use it and wherein the inhaler can be taken in combination with the device , can manually be moved or lifted by a user or patient and brought to the patient's mouth for the inhalation, wherein the device comprises a motor drive , wherein the drive is designed for the relative movement of two housing parts of the inhaler inserted into the device and/or coupled to the device , with respect to one another, wherein by the movement of the housing parts relative to one another energy can be added mechanically to the energy store , characterised in that the device and/or the drive are designed to rotate the housing parts relative to one another.