mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a structure including a first member and a second member , the first member being a substrate of an optical module or submount of an optical module, and made of a material other than gold and having a surface which is flat and on which a gold thin film (12', 12", 22, 22') is formed, the second member being made of a material other than gold, said method comprising the steps of: intermittently irradiating, with laser light, each point in an irradiation region (12a', 12a", 22a, 22a') of the surface of the first member , so that a base of the thin film (12', 12", 22, 22') is exposed in the irradiation region (12a', 12a", 22a, 22a'), the irradiation region (12a', 12a", 22a, 22a') being a region which is a part of the surface of the first member and whose outer circumference is constituted by a smooth curve having no angular corner; and bonding the second member to a rectangular bonding region (12b', 12b", 22b, 22b') by use of an adhesive , wherein the bonding region (12b', 12b") is set to encompass the irradiation region (12a', 12a"), or wherein the irradiation region contains the bonding region , or wherein the irradiation region is an annular region which (i) contains an outer circumference of the bonding region and (ii) extends along the outer circumference of the bonding region , wherein the first member is a copper-based material, wherein the adhesive is a photocurable resin, and wherein the second member is a transparent material. said method comprising the steps of: intermittently irradiating, with laser light, each point in an irradiation region (12a', 12a", 22a, 22a') of the surface of the first member , so that a base of the thin film (12', 12", 22, 22') is exposed in the irradiation region (12a', 12a", 22a, 22a'), the irradiation region (12a', 12a", 22a, 22a') being a region which is a part of the surface of the first member and whose outer circumference is constituted by a smooth curve having no angular corner; and bonding the second member to a rectangular bonding region (12b', 12b", 22b, 22b') by use of an adhesive , intermittently irradiating, with laser light, each point in an irradiation region (12a', 12a", 22a, 22a') of the surface of the first member , so that a base of the thin film (12', 12", 22, 22') is exposed in the irradiation region (12a', 12a", 22a, 22a'), the irradiation region (12a', 12a", 22a, 22a') being a region which is a part of the surface of the first member and whose outer circumference is constituted by a smooth curve having no angular corner; and bonding the second member to a rectangular bonding region (12b', 12b", 22b, 22b') by use of an adhesive , wherein the bonding region (12b', 12b") is set to encompass the irradiation region (12a', 12a"), or wherein the irradiation region contains the bonding region , or wherein the irradiation region is an annular region which (i) contains an outer circumference of the bonding region and (ii) extends along the outer circumference of the bonding region , wherein the first member is a copper-based material, wherein the adhesive is a photocurable resin, and wherein the second member is a transparent material.
Compressed air maintenance unit which has the following constituent parts: - an electrically actuable switching valve comprising a feed inlet connectable to a compressed air source (P) and an operating outlet and able to be switched into an open position connecting the operating outlet to the feed inlet and also into a shut-off position separating the operating outlet from the feed inlet , - a unit outlet which may be connected to an external consumer device (A) and which is connected via an outlet passage to the operating outlet of the switching valve , - sensor means at least in the form of a flow sensor used to measure the outlet flow occurring in the outlet passage , - and an internal electronic control unit which is connected for signalling to the switching valve and the flow sensor and which is designed, on the basis of an outlet flow measured by the flow sensor , to generate an electrical changeover signal which switches the switching valve from the open position into the shut-off position, characterised in that - the switching valve is a 2/2-way valve of the "Normally Open" type and is biased towards the open position by spring means so that, in the absence of an electrical changeover signal, it always adopts the open position. - an electrically actuable switching valve comprising a feed inlet connectable to a compressed air source (P) and an operating outlet and able to be switched into an open position connecting the operating outlet to the feed inlet and also into a shut-off position separating the operating outlet from the feed inlet , - a unit outlet which may be connected to an external consumer device (A) and which is connected via an outlet passage to the operating outlet of the switching valve , - sensor means at least in the form of a flow sensor used to measure the outlet flow occurring in the outlet passage , - and an internal electronic control unit which is connected for signalling to the switching valve and the flow sensor and which is designed, on the basis of an outlet flow measured by the flow sensor , to generate an electrical changeover signal which switches the switching valve from the open position into the shut-off position, characterised in that - the switching valve is a 2/2-way valve of the "Normally Open" type and is biased towards the open position by spring means so that, in the absence of an electrical changeover signal, it always adopts the open position.
An apparatus for a communication device , the apparatus comprising at least one processor, and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the at least one processor, cause the apparatus to at least: determine a cell reselection from an old cell to a selected cell at the communication device in an intermediate radio resource control state where the communication device is inactive but connected to a radio access system; subsequent to the determining, initiate communication of security credential information of the old cell with the selected cell of the radio access system while the communication device is in the intermediate radio resource control state; communicate with the selected cell based on a security configuration according to the security credential information; perform a deferred security credential update after the determining of the cell reselection; wait, after the determination of the cell reselection, until there is uplink data to be transmitted to the selected cell, and then: signal an indication to the selected cell that an existing security configuration with an old cell is to be used and use the existing security configuration for securing communications with the selected cell, receive security update information from the selected cell, and update the security configuration accordingly. determine a cell reselection from an old cell to a selected cell at the communication device in an intermediate radio resource control state where the communication device is inactive but connected to a radio access system; subsequent to the determining, initiate communication of security credential information of the old cell with the selected cell of the radio access system while the communication device is in the intermediate radio resource control state; communicate with the selected cell based on a security configuration according to the security credential information; perform a deferred security credential update after the determining of the cell reselection; wait, after the determination of the cell reselection, until there is uplink data to be transmitted to the selected cell, and then: signal an indication to the selected cell that an existing security configuration with an old cell is to be used and use the existing security configuration for securing communications with the selected cell, receive security update information from the selected cell, and update the security configuration accordingly. signal an indication to the selected cell that an existing security configuration with an old cell is to be used and use the existing security configuration for securing communications with the selected cell, receive security update information from the selected cell, and update the security configuration accordingly.
A method for manufacturing an anode for a cable-type secondary battery, comprising the steps of: forming a lithium-containing electrode layer on the outer surface of a wire-type current collector ; and surrounding the outer surface of the lithium-containing electrode layer with a substrate for forming a polymer layer spirally, and multi-lateral pressing the outside of the substrate for forming a polymer layer to form a polymer layer on the lithium-containing electrode layer , wherein the polymer layer comprises a hydrophobic polymer, an ion conductive polymer, and a binder for binding the hydrophobic polymer and the ion conductive polymer with each other; wherein the wire-type current collector surrounded with the substrate for forming a polymer layer is rotated around the longitudinal direction of the wire-type current collector as a rotation axis while carrying out the multi-lateral pressing, wherein the multi-lateral pressing is carried out by co-rotating one or more press members that are in contact with the outer surface of the substrate for forming a polymer layer ; and wherein the multi-lateral pressing is carried out at a temperature of 80-100°C under a pressure of 1.0-1.5 kg/cm 2 . forming a lithium-containing electrode layer on the outer surface of a wire-type current collector ; and surrounding the outer surface of the lithium-containing electrode layer with a substrate for forming a polymer layer spirally, and multi-lateral pressing the outside of the substrate for forming a polymer layer to form a polymer layer on the lithium-containing electrode layer , wherein the polymer layer comprises a hydrophobic polymer, an ion conductive polymer, and a binder for binding the hydrophobic polymer and the ion conductive polymer with each other; wherein the wire-type current collector surrounded with the substrate for forming a polymer layer is rotated around the longitudinal direction of the wire-type current collector as a rotation axis while carrying out the multi-lateral pressing, wherein the multi-lateral pressing is carried out by co-rotating one or more press members that are in contact with the outer surface of the substrate for forming a polymer layer ; and wherein the multi-lateral pressing is carried out at a temperature of 80-100°C under a pressure of 1.0-1.5 kg/cm 2 .
Apelin for use in a method of treating post-operative cognitive dysfunction (POCD) in a subject in need thereof.
A transmitter configured to provide an optical signal (S192) for transmitting a quantum key, the transmitter comprising opto-electronic circuitry configured to: generate a quantum signal (S120) comprising a sequence of frames ; generate a pilot signal (S160) comprising a sequence of signatures (250a-250f, 350a-350c) that is in synchrony with the sequence of frames ; and generate the optical signal (S192) by modulating an optical carrier (S180) based on the quantum signal (S120) and the pilot signal (S160), wherein the signatures in the sequence of signatures (250a-250f, 350a-350c) and the frames in the sequence of frames are related to each other in a 1-to-N relationship, wherein N is a natural number greater than 1, wherein the sequence of signatures (250a-250f, 350a-350c) provides temporal information about the sequence of frames , and this temporal information is at a beginning of the respective frame , at an end of the respective frame or at any fixed position within the respective frame , any delay between the respective frame and its corresponding signature (250a-250f, 350a-350c) is shorter than a duration of the respective frame, and a duration of the corresponding signature (250a-250f, 350a-350c) is shorter than the duration of the respective frame . generate a quantum signal (S120) comprising a sequence of frames ; generate a pilot signal (S160) comprising a sequence of signatures (250a-250f, 350a-350c) that is in synchrony with the sequence of frames ; and generate the optical signal (S192) by modulating an optical carrier (S180) based on the quantum signal (S120) and the pilot signal (S160), wherein the signatures in the sequence of signatures (250a-250f, 350a-350c) and the frames in the sequence of frames are related to each other in a 1-to-N relationship, wherein N is a natural number greater than 1, wherein the sequence of signatures (250a-250f, 350a-350c) provides temporal information about the sequence of frames , and this temporal information is at a beginning of the respective frame , at an end of the respective frame or at any fixed position within the respective frame , any delay between the respective frame and its corresponding signature (250a-250f, 350a-350c) is shorter than a duration of the respective frame, and a duration of the corresponding signature (250a-250f, 350a-350c) is shorter than the duration of the respective frame .
A control method for a terminal device in a non-terrestrial cellular data communication network , the network comprising at least one airborne or spaceborne base station moving along a flight trajectory , for connecting the terminal device to said network, the method comprising the following steps: providing flight trajectory data for said base station in a memory element of said terminal device ; providing terminal location data in a memory element of said terminal device ; determining, using a data processing unit, time slots, during which a wireless communication channel between said terminal device and said base station is estimated to be available, based on said flight trajectory data and on said terminal location data ; scheduling, using a data processing unit, a data reception or transmission between said terminal device and said base station during a time slot of said determined time slots. the method being characterized in : receiving during said scheduled time slot at said terminal device a synchronization signal from said base station , the synchronization signal carrying data indicating timing information and transmission frequency; computing, using a data processing unit, an observed time shift based on the reception time of said synchronization signal and on the timing information indicated therein; and pre-emptively compensating the scheduled time of transmission by a time compensation value during a subsequent data transmission to said base station , said time compensation value taking into account said observed time shift. providing flight trajectory data for said base station in a memory element of said terminal device ; providing terminal location data in a memory element of said terminal device ; determining, using a data processing unit, time slots, during which a wireless communication channel between said terminal device and said base station is estimated to be available, based on said flight trajectory data and on said terminal location data ; scheduling, using a data processing unit, a data reception or transmission between said terminal device and said base station during a time slot of said determined time slots. the method being characterized in : receiving during said scheduled time slot at said terminal device a synchronization signal from said base station , the synchronization signal carrying data indicating timing information and transmission frequency; computing, using a data processing unit, an observed time shift based on the reception time of said synchronization signal and on the timing information indicated therein; and pre-emptively compensating the scheduled time of transmission by a time compensation value during a subsequent data transmission to said base station , said time compensation value taking into account said observed time shift.
An antibody which binds to human CSF-1R wherein the antibody is administered in combination with an antibody which binds to human PD-L1 for use in the treatment of cancer, wherein the antibody which binds to human CSF-1R used in the combination therapy is characterized in comprising a heavy chain variable domain VH of SEQ ID NO:39 and a light chain variable domain VL of SEQ ID NO:40, and the antibody which binds to human PD-L1 used in the combination therapy is characterized in comprising a heavy chain variable domain VH of SEQ ID NO:89 and a light chain variable domain VL of SEQ ID NO:92.
A method for applying second radio access network, RAN, assistance information in a wireless communication system, the method performed by a user equipment, UE, and comprising: discarding dedicated RAN assistance information and first broadcast RAN assistance information based on a radio link failure, RLF, occurring; receiving second broadcast RAN assistance information via system information during a specific timer is running after the RLF occurs; and applying the second broadcast RAN assistance information based on whether the specific timer is running or not, wherein upon receiving the second broadcast RAN assistance information during the specific timer is running, the UE does not apply the second broadcast RAN assistance information and does not perform RAN rule, wherein the RAN rule is a condition for performing traffic steering from the wireless communication system to another wireless communication system, wherein upon expiry or stop the specific timer, the UE applies the second broadcast RAN assistance information, and wherein the specific timer is T311 timer. discarding dedicated RAN assistance information and first broadcast RAN assistance information based on a radio link failure, RLF, occurring; receiving second broadcast RAN assistance information via system information during a specific timer is running after the RLF occurs; and applying the second broadcast RAN assistance information based on whether the specific timer is running or not, wherein upon receiving the second broadcast RAN assistance information during the specific timer is running, the UE does not apply the second broadcast RAN assistance information and does not perform RAN rule, wherein the RAN rule is a condition for performing traffic steering from the wireless communication system to another wireless communication system, wherein upon expiry or stop the specific timer, the UE applies the second broadcast RAN assistance information, and wherein the specific timer is T311 timer.
A scintillator material for an ionizing radiation detector comprising an inorganic crystalline cation halide comprising at least one cation other than Eu 2+ and Sm 2+ , which is doped with Eu 2+ and co-doped with Sm 2+ , said cation halide comprising at least one halogen selected from Br, Cl, I, at least 60 mol%, and more preferably at least 80 mol%, of the halogen atoms of the cation halide are selected from Br, Cl, I and if it is present, the alkali metal K is not the only cation in the cation halide.
An image processing device comprising: at least one processor , wherein the processor is configured to: sequentially acquire a plurality of radiation images (T0, T1 to T5) of a subject having a body cavity into which an ultrasonic endoscope to which an ultrasonic imaging device is attached and to which a radiation impermeable marker is attached is inserted; sequentially acquire a plurality of two-dimensional ultrasound images (U0, U1 to U5, U10) corresponding to the plurality of radiation images (T0, T1 to T5), which are acquired by the ultrasonic imaging device ; recognize a position and a posture of the ultrasonic endoscope in the body cavity based on the marker included in each of the plurality of radiation images (T0, T1 to T5); and derive a three-dimensional ultrasound image (UVO, UV12) from the plurality of two-dimensional ultrasound images (U0,U1 to U5, U10) based on the position and the posture of the ultrasonic endoscope recognized with respect to the plurality of radiation images (T0, T1 to T5). at least one processor , wherein the processor is configured to: sequentially acquire a plurality of radiation images (T0, T1 to T5) of a subject having a body cavity into which an ultrasonic endoscope to which an ultrasonic imaging device is attached and to which a radiation impermeable marker is attached is inserted; sequentially acquire a plurality of two-dimensional ultrasound images (U0, U1 to U5, U10) corresponding to the plurality of radiation images (T0, T1 to T5), which are acquired by the ultrasonic imaging device ; recognize a position and a posture of the ultrasonic endoscope in the body cavity based on the marker included in each of the plurality of radiation images (T0, T1 to T5); and derive a three-dimensional ultrasound image (UVO, UV12) from the plurality of two-dimensional ultrasound images (U0,U1 to U5, U10) based on the position and the posture of the ultrasonic endoscope recognized with respect to the plurality of radiation images (T0, T1 to T5). sequentially acquire a plurality of radiation images (T0, T1 to T5) of a subject having a body cavity into which an ultrasonic endoscope to which an ultrasonic imaging device is attached and to which a radiation impermeable marker is attached is inserted; sequentially acquire a plurality of two-dimensional ultrasound images (U0, U1 to U5, U10) corresponding to the plurality of radiation images (T0, T1 to T5), which are acquired by the ultrasonic imaging device ; recognize a position and a posture of the ultrasonic endoscope in the body cavity based on the marker included in each of the plurality of radiation images (T0, T1 to T5); and derive a three-dimensional ultrasound image (UVO, UV12) from the plurality of two-dimensional ultrasound images (U0,U1 to U5, U10) based on the position and the posture of the ultrasonic endoscope recognized with respect to the plurality of radiation images (T0, T1 to T5).
A cooking device comprising at least one burner, the cooking device comprising: a structure including a surface having an opening ; a gas flow valve configured to control a flow of gas to the at least one burner, the gas flow valve including a rod extending through the opening in the surface ; a knob arrayed on the surface and configured to cooperate with the rod to control the flow of gas to the at least one burner; and a frame-plate disposed between the knob and the surface , wherein the frame-plate comprises a central orifice configured to allow passage of the rod through the frame-plate , characterized in that the frame-plate comprises at least one protuberance configured to pass through the opening in the surface and engage a first contact region of said surface through an interference fit by rotation of said frame-plate about the rod to align the frame-plate relative to the surface . a structure including a surface having an opening ; a gas flow valve configured to control a flow of gas to the at least one burner, the gas flow valve including a rod extending through the opening in the surface ; a knob arrayed on the surface and configured to cooperate with the rod to control the flow of gas to the at least one burner; and a frame-plate disposed between the knob and the surface , wherein the frame-plate comprises a central orifice configured to allow passage of the rod through the frame-plate , characterized in that the frame-plate comprises at least one protuberance configured to pass through the opening in the surface and engage a first contact region of said surface through an interference fit by rotation of said frame-plate about the rod to align the frame-plate relative to the surface .