mhurhangee/ep-ind-claims huggingface dataset:
A method for generating data representing the volume of part of a body (100, 102, 104, 106), the method comprising: generating a point distribution model "PDM" based on an input dataset comprising data representing at least one surface of part of a body, the PDM defining a surface model dataset for the part of the body based on an average dataset and one or more weight-eigenvector pairs; generating a first surface model dataset based on the PDM by modifying at least one weight of the one or more weight-eigenvector pairs such that the first surface model dataset generally corresponds to a first reference dataset, wherein the first surface model dataset is different from the average dataset; modifying at least one weight of the one or more weight-eigenvector pairs to provide a second surface model dataset different from the first surface model dataset; determining a mapping between the first and second surface model datasets and characterized by generating an output volume dataset for the part of the body by applying the mapping to a second reference dataset, the second reference dataset comprising volume data representing the volume of a corresponding part of a body, the output volume dataset comprising data representing a deformed volume of the corresponding part of the body, wherein the first reference dataset is different from the second reference dataset. generating a point distribution model "PDM" based on an input dataset comprising data representing at least one surface of part of a body, the PDM defining a surface model dataset for the part of the body based on an average dataset and one or more weight-eigenvector pairs; generating a first surface model dataset based on the PDM by modifying at least one weight of the one or more weight-eigenvector pairs such that the first surface model dataset generally corresponds to a first reference dataset, wherein the first surface model dataset is different from the average dataset; modifying at least one weight of the one or more weight-eigenvector pairs to provide a second surface model dataset different from the first surface model dataset; determining a mapping between the first and second surface model datasets and characterized by generating an output volume dataset for the part of the body by applying the mapping to a second reference dataset, the second reference dataset comprising volume data representing the volume of a corresponding part of a body, the output volume dataset comprising data representing a deformed volume of the corresponding part of the body, wherein the first reference dataset is different from the second reference dataset.
A method for maintaining a message store having a plurality of messages at an electronic device (108a, 108b), the method comprising: maintaining at the electronic device a client bookmark defining a first message identifier, ID, indicating a point in the message store up to which the content of the message store maintained at the electronic device is known to be complete, and a maximum message ID indicating the largest message ID of the plurality of messages of the message store that the electronic device has received; in response to determining at least one of: the client bookmark and the maximum message ID do not match; and the electronic device connecting with a server after a period of being disconnected, sending to the server (106a-m) a sync request message for the message store, the sync request message including the client bookmark and the maximum message ID; and; receiving, from the server, a sync response including: a server bookmark defining a second message identifier, ID, indicating a point in a message store maintained at the server up to which the content of the message store maintained at the server is known to be complete; message IDs of messages of the message store that come after the client bookmark and before or up to the server bookmark. maintaining at the electronic device a client bookmark defining a first message identifier, ID, indicating a point in the message store up to which the content of the message store maintained at the electronic device is known to be complete, and a maximum message ID indicating the largest message ID of the plurality of messages of the message store that the electronic device has received; in response to determining at least one of: the client bookmark and the maximum message ID do not match; and the electronic device connecting with a server after a period of being disconnected, the client bookmark and the maximum message ID do not match; and the electronic device connecting with a server after a period of being disconnected, sending to the server (106a-m) a sync request message for the message store, the sync request message including the client bookmark and the maximum message ID; and; receiving, from the server, a sync response including: a server bookmark defining a second message identifier, ID, indicating a point in a message store maintained at the server up to which the content of the message store maintained at the server is known to be complete; message IDs of messages of the message store that come after the client bookmark and before or up to the server bookmark. a server bookmark defining a second message identifier, ID, indicating a point in a message store maintained at the server up to which the content of the message store maintained at the server is known to be complete; message IDs of messages of the message store that come after the client bookmark and before or up to the server bookmark.
A method comprising: receiving, by a home agent (116, 402) in a second service domain messaging from a PDN gateway (126, 400) operating in a first service domain, wherein the messaging is in response to information, received at the PDN gateway, associated with a mobile station to allow for establishment of a session for the mobile station that is attached to a first access network in the first service domain that is of a different type than the second service domain, wherein the session is established by a first serving gateway; in response to the messaging, allocating, by the home agent, an IP address to the mobile station; sending, by the home agent to the PDN gateway the IP address allocated to the mobile station in the second service domain, wherein services provided to the mobile station are anchored in the second service domain; and assigning, by the home agent the same IP address to the mobile station in response to transfer of the session of the mobile station from the first serving gateway to a second serving gateway. receiving, by a home agent (116, 402) in a second service domain messaging from a PDN gateway (126, 400) operating in a first service domain, wherein the messaging is in response to information, received at the PDN gateway, associated with a mobile station to allow for establishment of a session for the mobile station that is attached to a first access network in the first service domain that is of a different type than the second service domain, wherein the session is established by a first serving gateway; in response to the messaging, allocating, by the home agent, an IP address to the mobile station; sending, by the home agent to the PDN gateway the IP address allocated to the mobile station in the second service domain, wherein services provided to the mobile station are anchored in the second service domain; and assigning, by the home agent the same IP address to the mobile station in response to transfer of the session of the mobile station from the first serving gateway to a second serving gateway.
A battery module, comprising: a plurality of secondary batteries respectively having a gas venting portion for discharging a gas generated therein to the outside at a predetermined pressure and arranged in a front and rear direction in two rows; and a cooling member including a body portion interposed between two rows of the plurality of secondary batteries and having a size corresponding to left and right sides of the plurality of secondary batteries, and a gas discharge portion provided to an upper portion of the body portion and having a gas discharge passage elongated from a front end to a rear end of the body portion, wherein the gas discharge passage has a groove shape extending from the front end to the rear end of the upper portion of the cooling member and indented inward, the battery module further comprises a bus bar assembly including a bus bar, a terminal bus bar, and a bus bar housing, wherein the bus bar housing comprises a plurality of opening opened to respectively communicate with the plurality of secondary batteries, and the bus bar housing comprises an open portion opened in a part thereof to communicate with the gas discharge passage of the gas discharge portion of the cooling member so that gas introduced through the opening of the bus bar housing move through the open portion, and the moved gas is collected in the gas discharge portion of the cooling member and moved in the front and rear direction to be discharged to the outside. a plurality of secondary batteries respectively having a gas venting portion for discharging a gas generated therein to the outside at a predetermined pressure and arranged in a front and rear direction in two rows; and a cooling member including a body portion interposed between two rows of the plurality of secondary batteries and having a size corresponding to left and right sides of the plurality of secondary batteries, and a gas discharge portion provided to an upper portion of the body portion and having a gas discharge passage elongated from a front end to a rear end of the body portion, wherein the gas discharge passage has a groove shape extending from the front end to the rear end of the upper portion of the cooling member and indented inward, the battery module further comprises a bus bar assembly including a bus bar, a terminal bus bar, and a bus bar housing, wherein the bus bar housing comprises a plurality of opening opened to respectively communicate with the plurality of secondary batteries, and the bus bar housing comprises an open portion opened in a part thereof to communicate with the gas discharge passage of the gas discharge portion of the cooling member so that gas introduced through the opening of the bus bar housing move through the open portion, and the moved gas is collected in the gas discharge portion of the cooling member and moved in the front and rear direction to be discharged to the outside.
Fluid connection element for establishing a fluid connection by means of a connecting socket, comprising: a receiving socket for receiving the connecting socket; a locking sleeve, which is arranged in the receiving socket in an axially displaceable manner and is configured to receive the connecting socket, wherein the locking sleeve comprises a locking element, which is configured to lock the connecting socket received in the locking sleeve; an actuating element (125, 125-1, 125-2, 125-3), which is configured to fix the locking sleeve for releasing the locking, so that the connecting socket is guidable out of the locking sleeve; characterized in that the fluid connection element further comprises a rotatable outer sleeve, which encloses the receiving socket in a rotatable manner, wherein the rotatable outer sleeve comprises a releasing position, which enables the actuating of the actuating element (125, 125-1, 125-2, 125-3) for releasing the locking, and a securing position, which prevents the actuating of the actuating element (125, 125-1, 125-2, 125-3) for releasing the locking, wherein the rotatable outer sleeve is rotatable between the releasing position and the securing position. a receiving socket for receiving the connecting socket; a locking sleeve, which is arranged in the receiving socket in an axially displaceable manner and is configured to receive the connecting socket, wherein the locking sleeve comprises a locking element, which is configured to lock the connecting socket received in the locking sleeve; an actuating element (125, 125-1, 125-2, 125-3), which is configured to fix the locking sleeve for releasing the locking, so that the connecting socket is guidable out of the locking sleeve; characterized in that the fluid connection element further comprises a rotatable outer sleeve, which encloses the receiving socket in a rotatable manner, wherein the rotatable outer sleeve comprises a releasing position, which enables the actuating of the actuating element (125, 125-1, 125-2, 125-3) for releasing the locking, and a securing position, which prevents the actuating of the actuating element (125, 125-1, 125-2, 125-3) for releasing the locking, wherein the rotatable outer sleeve is rotatable between the releasing position and the securing position.
A base station, wherein the base station comprises: a sending module, configured to send an indication message to a terminal using a primary cell of the base station or through a first channel of a secondary cell of the base station, wherein the indication message is used to instruct the terminal to further establish a connection to the base station through a second channel of the secondary cell in a case in which the terminal maintains a connection to the base station through the first channel of the secondary cell, and the first channel and the second channel are on different frequencies; a receiving module, configured to receive, through the first channel of the secondary cell, an access message from the terminal, wherein the access message indicates that the terminal has established the connection to the base station through the second channel of the secondary cell; the sending module, further configured to send a handover command to the terminal using the primary cell or through the first channel of the secondary cell, wherein the handover command instructs the terminal to switch communication with the base station from the first channel to the second channel of the secondary cell; and a handover module, configured to synchronously switch communication with the terminal from the first channel to the second channel of the secondary cell. a sending module, configured to send an indication message to a terminal using a primary cell of the base station or through a first channel of a secondary cell of the base station, wherein the indication message is used to instruct the terminal to further establish a connection to the base station through a second channel of the secondary cell in a case in which the terminal maintains a connection to the base station through the first channel of the secondary cell, and the first channel and the second channel are on different frequencies; a receiving module, configured to receive, through the first channel of the secondary cell, an access message from the terminal, wherein the access message indicates that the terminal has established the connection to the base station through the second channel of the secondary cell; the sending module, further configured to send a handover command to the terminal using the primary cell or through the first channel of the secondary cell, wherein the handover command instructs the terminal to switch communication with the base station from the first channel to the second channel of the secondary cell; and a handover module, configured to synchronously switch communication with the terminal from the first channel to the second channel of the secondary cell.
A method for manufacturing a thin film transistor, the method comprising the steps of: forming a gate electrode; forming a gate insulating film; forming an active layer, the active layer being formed of an Sn O 2 based oxide semiconductor layer having N type semiconductor characteristic;; forming a reactive metal layer,wherein the reactive metal layer is in contact with one surface of the active layer; heat-treating the active layer and the reactive metal layer to form the active layer as an Sn O based oxide semiconductor layer and forming the reactive metal layer as a metal oxide layer; and forming a source electrode which is in contact with a first side of the active layer and a drain electrode which is in contact with a second side of the active layer, the second side being opposite to the first side with respect to the gate electrode. forming a gate electrode; forming a gate insulating film; forming an active layer, the active layer being formed of an Sn O 2 based oxide semiconductor layer having N type semiconductor characteristic;; forming a reactive metal layer,wherein the reactive metal layer is in contact with one surface of the active layer; heat-treating the active layer and the reactive metal layer to form the active layer as an Sn O based oxide semiconductor layer and forming the reactive metal layer as a metal oxide layer; and forming a source electrode which is in contact with a first side of the active layer and a drain electrode which is in contact with a second side of the active layer, the second side being opposite to the first side with respect to the gate electrode.
A solar cell module comprising: a plurality of solar cells; a front substrate positioned at first surfaces of the plurality of solar cells; a back substrate positioned at second surfaces of the plurality of solar cells; a front protective member positioned between the front substrate and the plurality of solar cells, the front protective member including a first silicone resin; a back protective member positioned between the back substrate and the plurality of solar cells, the back protective member including a second silicone resin; and a fiber material having a mesh form and including individual fibers divided by a space, the fiber material being disposed between the plurality of solar cells and the back substrate, wherein the fiber material is spaced apart from the back substrate and a distance between the fiber material and the back substrate is smaller than a distance between the fiber material and the plurality of solar cells, a thickness of the fiber material including the individual fibers is less than a thickness of the second silicone resin, and a space between the fiber material and the back surface is filled with the second silicone resin, characterized in that the first silicone resin has a transmittance equal to or greater than 70 % at a wavelength of 300 nm to 500 nm, and the second silicone resin has a transmittance less than a transmittance of the first silicone resin at a wavelength of 300 nm to 500 nm. a plurality of solar cells; a front substrate positioned at first surfaces of the plurality of solar cells; a back substrate positioned at second surfaces of the plurality of solar cells; a front protective member positioned between the front substrate and the plurality of solar cells, the front protective member including a first silicone resin; a back protective member positioned between the back substrate and the plurality of solar cells, the back protective member including a second silicone resin; and a fiber material having a mesh form and including individual fibers divided by a space, the fiber material being disposed between the plurality of solar cells and the back substrate, wherein the fiber material is spaced apart from the back substrate and a distance between the fiber material and the back substrate is smaller than a distance between the fiber material and the plurality of solar cells, a thickness of the fiber material including the individual fibers is less than a thickness of the second silicone resin, and a space between the fiber material and the back surface is filled with the second silicone resin, characterized in that the first silicone resin has a transmittance equal to or greater than 70 % at a wavelength of 300 nm to 500 nm, and the second silicone resin has a transmittance less than a transmittance of the first silicone resin at a wavelength of 300 nm to 500 nm.
A method for customizing visual field tests, comprising: selecting a visual field test for a patient, the selected visual field test having one or more test points of definable light intensities; obtaining a biometric measurement of a retina of the patient; deriving a respective threshold sensitivity value for one or more select test points of the selected visual field test based at least in part on the biometric measurement, each threshold sensitivity value being a light intensity measure that the patient is expected to discern with a predefined success rate; and using the derived threshold sensitivity values to determine one or more starting intensity values for the one or more select test points when applying the selected visual field test to the patient; characterised in that the deriving is provided at least in part by a machine learning system established, at least in part, within a computing system including a trained neural network that includes a first neural network of a first type (NN-1) in series with a second neural network (NN-2) different than the first type, and wherein the first type neural network receives as input image data and the second type neural network receives as input non-image data. selecting a visual field test for a patient, the selected visual field test having one or more test points of definable light intensities; obtaining a biometric measurement of a retina of the patient; deriving a respective threshold sensitivity value for one or more select test points of the selected visual field test based at least in part on the biometric measurement, each threshold sensitivity value being a light intensity measure that the patient is expected to discern with a predefined success rate; and using the derived threshold sensitivity values to determine one or more starting intensity values for the one or more select test points when applying the selected visual field test to the patient; characterised in that the deriving is provided at least in part by a machine learning system established, at least in part, within a computing system including a trained neural network that includes a first neural network of a first type (NN-1) in series with a second neural network (NN-2) different than the first type, and wherein the first type neural network receives as input image data and the second type neural network receives as input non-image data.
A can for containing a liquid comprising a top end, said top end comprising: (a) A dispense area defined on said top end by a first score line, (b) A vent area defined on said top end by a second score line separate from the first score line, (c) A first rivet located offset the geometric centre of the can top end, for coupling to the top end, (d) A pull tab suitable for puncturing the dispense areas to open a dispense aperture; (e) Means for opening the vent aperture; Characterized in that the first rivet is located between the vent and dispense area, and in that the dispense area has a dimension (d) along the diameter of the top end passing by the first rivet greater or equal to the radius of the top end. (a) A dispense area defined on said top end by a first score line, (b) A vent area defined on said top end by a second score line separate from the first score line, (c) A first rivet located offset the geometric centre of the can top end, for coupling to the top end, (d) A pull tab suitable for puncturing the dispense areas to open a dispense aperture; (e) Means for opening the vent aperture; Characterized in that the first rivet is located between the vent and dispense area, and in that the dispense area has a dimension (d) along the diameter of the top end passing by the first rivet greater or equal to the radius of the top end.