mhurhangee/ep-ind-claims huggingface dataset:
A cardiopulmonary resuscitation monitoring apparatus comprising: a light source section configured to cause light, which includes at least infrared light, to be incident on a living body; a light receiving unit configured to receive at least one of transmitted light that is transmitted through the living body and reflected light that is reflected from the living body; characterized in that it comprises: a calculating unit, configured to receive DC components of received light intensities of the light received at different times, at least one of the different times being during execution of cardiopulmonary resuscitation, the calculating unit being configured to calculate a ratio of the DC components of the received light intensities of the light received at the different times; an evaluating unit configured to perform evaluation related to the cardiopulmonary resuscitation based on the ratio calculated by the calculating unit by determining whether the ratio has an increasing or decreasing trend; and an outputting unit configured to output a message in accordance with a result of the evaluation performed by the evaluating unit. a light source section configured to cause light, which includes at least infrared light, to be incident on a living body; a light receiving unit configured to receive at least one of transmitted light that is transmitted through the living body and reflected light that is reflected from the living body; characterized in that it comprises: a calculating unit, configured to receive DC components of received light intensities of the light received at different times, at least one of the different times being during execution of cardiopulmonary resuscitation, the calculating unit being configured to calculate a ratio of the DC components of the received light intensities of the light received at the different times; an evaluating unit configured to perform evaluation related to the cardiopulmonary resuscitation based on the ratio calculated by the calculating unit by determining whether the ratio has an increasing or decreasing trend; and an outputting unit configured to output a message in accordance with a result of the evaluation performed by the evaluating unit. a calculating unit, configured to receive DC components of received light intensities of the light received at different times, at least one of the different times being during execution of cardiopulmonary resuscitation, the calculating unit being configured to calculate a ratio of the DC components of the received light intensities of the light received at the different times; an evaluating unit configured to perform evaluation related to the cardiopulmonary resuscitation based on the ratio calculated by the calculating unit by determining whether the ratio has an increasing or decreasing trend; and an outputting unit configured to output a message in accordance with a result of the evaluation performed by the evaluating unit. an outputting unit configured to output a message in accordance with a result of the evaluation performed by the evaluating unit.
A patient interface, comprising: a cushion module; an elbow module; a frame module positioned between the cushion module and the elbow module; a headgear removably attached to the frame module; and an adaptive system, adapted to fit the contours of patient's face when the cushion module, the elbow module, and the headgear are assembled, the adaptive system comprising: a forehead pressure diffusing portion disposed in the frame module; a cheek buffering portion disposed in the cushion module; and a connecting portion (S3, 320) positioned between the forehead pressure diffusing portion and the cheek buffering portion, wherein the connecting portion (S3, 320) is configured to transmit pressure between the forehead pressure diffusing portion and the cheek buffering portion; characterized in that the forehead pressure diffusing portion comprises a headgear connecting portion, and two side wings deformable by a pressure applied on the headgear; the cushion module comprises a buffer region having a longitudinally extended groove on each of inner side edges of the cushion module; and a forehead pad is absent between the forehead pressure diffusing portion and the patient's forehead. a cushion module; an elbow module; a frame module positioned between the cushion module and the elbow module; a headgear removably attached to the frame module; and an adaptive system, adapted to fit the contours of patient's face when the cushion module, the elbow module, and the headgear are assembled, the adaptive system comprising: a forehead pressure diffusing portion disposed in the frame module; a cheek buffering portion disposed in the cushion module; and a connecting portion (S3, 320) positioned between the forehead pressure diffusing portion and the cheek buffering portion, wherein the connecting portion (S3, 320) is configured to transmit pressure between the forehead pressure diffusing portion and the cheek buffering portion; a forehead pressure diffusing portion disposed in the frame module; a cheek buffering portion disposed in the cushion module; and a connecting portion (S3, 320) positioned between the forehead pressure diffusing portion and the cheek buffering portion, wherein the connecting portion (S3, 320) is configured to transmit pressure between the forehead pressure diffusing portion and the cheek buffering portion; characterized in that the forehead pressure diffusing portion comprises a headgear connecting portion, and two side wings deformable by a pressure applied on the headgear; the cushion module comprises a buffer region having a longitudinally extended groove on each of inner side edges of the cushion module; and a forehead pad is absent between the forehead pressure diffusing portion and the patient's forehead.
A method of producing an optical flow cell, the flow cell comprising a housing forming an enclosed and elongated fluid channel arranged along a first axis; an inlet arranged to connect a first outer surface area of the housing to a first end of the fluid channel and an outlet arranged to connect a second outer surface area to a second end of the fluid channel; a first light guide and a second light guide concentrically arranged along a second axis and on opposite side walls of the fluid channel, wherein the housing comprises at least a first part, a second part and a seal located between the first and the second part (111, 112), the first part being configured to form the enclosed and elongated fluid channel arranged along the first axis; the fluid channel in the first part having an open side, and the corresponding second part being configured to close the open side of the fluid channel, and wherein said method is characterised by: inserting a continuous light guide into the optical flow cell housing along a second axis and then removing a portion of the continuous light guide to form a first light guide having an exit surface, where light is emitted, and to form a second light guide having an entrance surface, where the portion removed has a length equal to a distance (d) such that the exit surface and the entrance surface after removing the portion are separated by the distance (d). a housing forming an enclosed and elongated fluid channel arranged along a first axis; an inlet arranged to connect a first outer surface area of the housing to a first end of the fluid channel and an outlet arranged to connect a second outer surface area to a second end of the fluid channel; a first light guide and a second light guide concentrically arranged along a second axis and on opposite side walls of the fluid channel, wherein the housing comprises at least a first part, a second part and a seal located between the first and the second part (111, 112), the first part being configured to form the enclosed and elongated fluid channel arranged along the first axis; the fluid channel in the first part having an open side, and the corresponding second part being configured to close the open side of the fluid channel, and wherein said method is characterised by: inserting a continuous light guide into the optical flow cell housing along a second axis and then removing a portion of the continuous light guide to form a first light guide having an exit surface, where light is emitted, and to form a second light guide having an entrance surface, where the portion removed has a length equal to a distance (d) such that the exit surface and the entrance surface after removing the portion are separated by the distance (d).
A dual-mode radio frequency transceiver architecture, comprising a radio frequency front-end module, a receiving module, a sending module, and a dual-mode baseband and firmware unit, wherein the dual-mode baseband and firmware unit is adapted to determine hardware parameters of the receiving module or sending module based on a first mode or a second mode; the radio frequency front-end module is adapted to receive or send a first mode signal or a second mode signal; the receiving module is adapted to convert the first mode signal received by the radio frequency front-end module into a first mode baseband digital signal, or convert the second mode signal received by the radio frequency front-end module into a second mode baseband digital signal, and output the first mode baseband digital signal or the second mode baseband digital signal to the dual-mode baseband and firmware unit; the sending module is adapted to convert the first mode baseband digital signal outputted by the dual-mode baseband and firmware unit into the first mode signal, or convert the second mode baseband digital signal outputted by the dual-mode baseband and firmware unit into the second mode signal, and output the first mode signal or the second mode signal to the radio frequency front-end module; wherein the first mode is Bluetooth Low Energy, and the second mode is ZigBee, characterized in that the dual-mode baseband and firmware unit comprises a unified hardware calling interface, which is adapted to determine hardware parameters of the sending module and the receiving module based on the signal rate and anti-interference requirement of the first mode or second mode.
Method for deriving unified metadata, said method comprising - receiving original metadata from different sources, said original metadata having different associated names and/or syntaxes; - recording said received original metadata on a storage medium; - deriving unified metadata from said received original metadata using one or more transformation rules, said transformation rules specifying how the content or parts of the content of said original metadata shall be used to constitute the content or part of the content of said unified metadata; - storing said derived unified metadata; and - displaying said stored unified metadata wherein - said original metadata and said unified metadata are pointing to and describing same metadata items of same audio and/or video content, and - deriving said unified metadata comprises generating several candidates for the unified metadata and then selecting one candidate from the several candidates as the unified metadata. - receiving original metadata from different sources, said original metadata having different associated names and/or syntaxes; - recording said received original metadata on a storage medium; - deriving unified metadata from said received original metadata using one or more transformation rules, said transformation rules specifying how the content or parts of the content of said original metadata shall be used to constitute the content or part of the content of said unified metadata; - storing said derived unified metadata; and - displaying said stored unified metadata - said original metadata and said unified metadata are pointing to and describing same metadata items of same audio and/or video content, and - deriving said unified metadata comprises generating several candidates for the unified metadata and then selecting one candidate from the several candidates as the unified metadata.
A structure comprising: a dielectrophoresis, DEP, configuration comprising an outer surface, a first electrode, and a first switchable element disposed between said outer surface and said first electrode, wherein said first switchable element is configured to temporarily create an electrically conductive first path from a first region of said outer surface through said switchable element to said first electrode; and an electrowetting, EW, configuration comprising an electrowetting surface, a second electrode, a dielectric layer disposed between said electrowetting surface and said second electrode and a second switchable element disposed between said dielectric layer and said second electrode, wherein said second switchable element is configured to temporarily create an electrically conductive path through said second switchable element and thereby change a wetting property of a second region of said electrowetting surface adjacent to said second path, wherein said DEP configuration is disposed adjacent to said EW configuration such that said outer surface of said DEP configuration is adjacent to said electrowetting surface. a dielectrophoresis, DEP, configuration comprising an outer surface, a first electrode, and a first switchable element disposed between said outer surface and said first electrode, wherein said first switchable element is configured to temporarily create an electrically conductive first path from a first region of said outer surface through said switchable element to said first electrode; and an electrowetting, EW, configuration comprising an electrowetting surface, a second electrode, a dielectric layer disposed between said electrowetting surface and said second electrode and a second switchable element disposed between said dielectric layer and said second electrode, wherein said second switchable element is configured to temporarily create an electrically conductive path through said second switchable element and thereby change a wetting property of a second region of said electrowetting surface adjacent to said second path, wherein said DEP configuration is disposed adjacent to said EW configuration such that said outer surface of said DEP configuration is adjacent to said electrowetting surface.
A fiber optical transceiver comprising: a package; a plurality of lead frames provided with the package and protruding outward from the package; a first circuit board installed in the package and electrically connected to the plurality of lead frames; and an optical element provided on the first circuit board, characterized in that at least a portion of the package is a ceramic portion (131, 132, 133) formed of ceramic and covered with a metallized film, which is formed by forming a metal film on a surface of the ceramic portion (131, 132, 133) of the package. a package; a plurality of lead frames provided with the package and protruding outward from the package; a first circuit board installed in the package and electrically connected to the plurality of lead frames; and an optical element provided on the first circuit board, characterized in that at least a portion of the package is a ceramic portion (131, 132, 133) formed of ceramic and covered with a metallized film, which is formed by forming a metal film on a surface of the ceramic portion (131, 132, 133) of the package.
Method of providing a number of concrete products with a coating material, in which during a process of making concrete products having an intermediate step after forming and compacting corresponding to a fresh concrete phase, in which the concrete products are present as fresh concrete products, a coating material is applied in the fresh concrete phase in a spraying process by means of a spray device to a surface of a number of fresh concrete products corresponding to the number of concrete products, wherein - a measure for the porosity of a fresh concrete product from the fresh concrete phase is determined via a measuring device (1a, 1b), and - the spraying process of the coating material on the number of fresh concrete products is conducted in dependence of the determined measure for the porosity by controlling at least one process parameter for adjusting an application rate of the coating material. - a measure for the porosity of a fresh concrete product from the fresh concrete phase is determined via a measuring device (1a, 1b), and - the spraying process of the coating material on the number of fresh concrete products is conducted in dependence of the determined measure for the porosity by controlling at least one process parameter for adjusting an application rate of the coating material.
A data channel receiving method, comprising: receiving (S 102), by a terminal, indication information from a network device, wherein the indication information indicates that the terminal needs to detect data channel puncturing information and the indication information is carried in a system message or radio resource control, RRC, signaling; receiving (S 104), by the terminal, the data channel puncturing information from the network device based on the indication information, wherein the data channel puncturing information indicates a punctured resource location and the data channel puncturing information is carried in second downlink control information sent in a common search space, and wherein the punctured resource location includes a punctured time domain symbol location and/or a punctured resource block location in the data channel; and receiving (S 106), by the terminal, the data channel from the network device, and ignoring information carried at the punctured resource location in the data channel, wherein the second downlink control information is sent after the data channel is sent. receiving (S 102), by a terminal, indication information from a network device, wherein the indication information indicates that the terminal needs to detect data channel puncturing information and the indication information is carried in a system message or radio resource control, RRC, signaling; receiving (S 104), by the terminal, the data channel puncturing information from the network device based on the indication information, wherein the data channel puncturing information indicates a punctured resource location and the data channel puncturing information is carried in second downlink control information sent in a common search space, and wherein the punctured resource location includes a punctured time domain symbol location and/or a punctured resource block location in the data channel; and receiving (S 106), by the terminal, the data channel from the network device, and ignoring information carried at the punctured resource location in the data channel, wherein the second downlink control information is sent after the data channel is sent.
A Fab comprising a modified heavy chain constant region, wherein said modified heavy chain constant region comprises a CH1 domain and a hinge region in order from the N- to C-terminus, wherein the hinge region is of a rodent IgG isotype and the CH1 domain is not of a rodent IgG isotype, wherein the rodent hinge region consists of the amino acid sequence of any one of ERRNGGIGHKC (SEQ ID NO: 32), EERNGGIGHKC (SEQ ID NO: 93), ERRQGGIGHKC (SEQ ID NO: 34), VPREC (SEQ ID NO: 26), and wherein the CH1 domain consists of the amino acid sequence of any one of ASTKGPSVFPLAPSSKSTSGGTAALGCLVKDYFPEPVTVSWNSGALTSGVHTFPAVLQS SGLYSLSSVVTVPSSSLGTQTYICNVNHKPSNTKVDKKV (SEQ ID NO: 1), ASTKGPSVFPLAPSSKSTSGGTAALGCLVKDYFPEPVTVSWNSGALTSGVHTFPAVLQS SGLYSLSSWTVPSSSLGTQTYICNVNHKPSNTKVDKRV (SEQ ID NO: 2), ASTKGPSVFPLAPSSKSTSGGTAALGCLVKDYFPEPVTVSWNSGALTSGVHTFPAVLQS SGLYSLSSWTVPSSSLGTQTYICNVNHKPSNTKVDKKI (SEQ ID NO: 7), ASTKGPSVFPLAPSSKSTSGGTAALGCLVKDYFPEPVTVSWNSGALTSGVHTFPAVLQS SGLYSLSSWTVPSSSLGTQTYICNVNHKPSNTKVEKKV (SEQ ID NO: 8), ASTKGPSVFPLAPSSKSTSGGTAALGCLVKDYFPEPVTVSWNSGALTSGVHTFPAVLQS SGLYSLSSW'ΓVPSSSLGTQTYICNVNHKPSNTKVDKGV (SEQ ID NO: 9) or ASTKGPSVFPLAPSSKSTSGGTAALGCLVKDYFPEPVTVSWNSGALTSGVHTFPAVLQS SGLYSLSSWTVPSSSLGTQTYICNVNHKPSNTKVDKEV (SEQ ID NO: 10).
A method of configuring a transmitting User Equipment, UE, for proximity awareness in a wireless network system comprising a plurality of UEs, a base station, a network side device and a Home Subscriber Server, HSS, the method comprising: receiving and storing, by the network side device, subscription information of the UE transmitted by the Home Subscriber Server, HSS, wherein the subscription information carries respective types of services to which the UE subscribes; determining, by the network side device, a list of service identifiers of the respective types of services to which the UE subscribes according to a preset mapping relationship between the service identifiers and the types of services and allocating a temporary device identifier to the UE; and transmitting, by the network side device, the list and the temporary device identifier to a base station; configuring, by the base station, the UE with the list and the temporary device identifier and instructing the UE to activate a function of transmitting proximity awareness message; and broadcasting, by the UE, a proximity awareness message for device-to-device, D2D communication carrying the list of service identifiers and the temporary device identifier via an air interface to other UEs. receiving and storing, by the network side device, subscription information of the UE transmitted by the Home Subscriber Server, HSS, wherein the subscription information carries respective types of services to which the UE subscribes; determining, by the network side device, a list of service identifiers of the respective types of services to which the UE subscribes according to a preset mapping relationship between the service identifiers and the types of services and allocating a temporary device identifier to the UE; and transmitting, by the network side device, the list and the temporary device identifier to a base station; configuring, by the base station, the UE with the list and the temporary device identifier and instructing the UE to activate a function of transmitting proximity awareness message; and broadcasting, by the UE, a proximity awareness message for device-to-device, D2D communication carrying the list of service identifiers and the temporary device identifier via an air interface to other UEs.