mhurhangee/patent-ind-claim-en huggingface dataset:
A lighting management device for managing the lighting in a compartment of a public transport vehicle , in particular a railway vehicle, that comprises a variable lighting system arranged in the compartment , characterised in that the lighting management device includes: - at least one exterior light sensor , that is capable of measuring the characteristics of the exterior light outside the vehicle, and at least one interior image capture device , that is capable of capturing images within the interior of the compartment ; and - a control unit for controlling the lighting system , configured so as to adjust the lighting in the compartment based on the brightness of the exterior light measured outside the vehicle and the images captured within the interior of the compartment , - a front exterior light sensor 21, turned towards the front of the vehicle, in order to predict exterior light variations due to the advancing of the vehicle. - at least one exterior light sensor , that is capable of measuring the characteristics of the exterior light outside the vehicle, and at least one interior image capture device , that is capable of capturing images within the interior of the compartment ; and - a control unit for controlling the lighting system , configured so as to adjust the lighting in the compartment based on the brightness of the exterior light measured outside the vehicle and the images captured within the interior of the compartment , - a front exterior light sensor 21, turned towards the front of the vehicle, in order to predict exterior light variations due to the advancing of the vehicle.
A method for managing an application, comprising: if it is detected that a current application running in foreground of a terminal is switched to background for running, determining whether the current application is allowed to run in the background of the terminal according to a configuration file that includes application identification information of the current application, wherein the configuration file at least comprises application identification information of a first application allowed to run in the background of the terminal and behavior identification information of a behavior allowed to be operated in the first application; acquiring a behavior allowed to be operated in the current application according to the configuration file, if it is determined that the current application is allowed to run in the background of the terminal; and closing behaviors in the current application other than the behavior allowed to be operated while performing the allowed behavior, comprises: determining a system resource required to be called for operating a first behavior, wherein the first behavior is any behavior in the current application other than the behavior allowed to be operated in the current application; and configuring in a configuration function of the current application that the current application is forbidden to call the system resource so as to close the first behavior. if it is detected that a current application running in foreground of a terminal is switched to background for running, determining whether the current application is allowed to run in the background of the terminal according to a configuration file that includes application identification information of the current application, wherein the configuration file at least comprises application identification information of a first application allowed to run in the background of the terminal and behavior identification information of a behavior allowed to be operated in the first application; acquiring a behavior allowed to be operated in the current application according to the configuration file, if it is determined that the current application is allowed to run in the background of the terminal; and closing behaviors in the current application other than the behavior allowed to be operated while performing the allowed behavior, comprises: determining a system resource required to be called for operating a first behavior, wherein the first behavior is any behavior in the current application other than the behavior allowed to be operated in the current application; and configuring in a configuration function of the current application that the current application is forbidden to call the system resource so as to close the first behavior.
A hydraulic system (HS) for a mining machine comprising: a pump for producing hydraulic pressure and flow to the system; a tank for storing and receiving hydraulic fluid; a hydraulic actuator (HA) comprising a first working pressure space and a second working pressure space ; a first pressure conduit being in fluid connection with the first working pressure space and a second pressure conduit being in fluid connection with the second working pressure space ; a first counterbalance valve (Cb1) connected to the first pressure conduit and configured to restrict discharged fluid flow out of the first working pressure space and allowing free input flow into an opposite direction; a second counterbalance valve (Cb2) connected to the second pressure conduit and configured to restrict discharged fluid flow out of the second working pressure space and allowing free input flow into an opposite direction; and a control valve for controlling feeding and discharging of hydraulic fluid to and from the first and second working pressure spaces in order to control direction and speed of movement generated by the hydraulic actuator (HA); characterized in that the hydraulic system (HS) further comprises a first solenoid valve (Sv1) for controlling opening pressure of the first counterbalance valve (Cb1) and a second solenoid valve (Sv2) for controlling opening pressure of the second counterbalance valve (Cb2), whereby pressure of the hydraulic fluid discharging from the working pressure spaces of the hydraulic actuator (HA) is independently controllable. a pump for producing hydraulic pressure and flow to the system; a tank for storing and receiving hydraulic fluid; a hydraulic actuator (HA) comprising a first working pressure space and a second working pressure space ; a first pressure conduit being in fluid connection with the first working pressure space and a second pressure conduit being in fluid connection with the second working pressure space ; a first counterbalance valve (Cb1) connected to the first pressure conduit and configured to restrict discharged fluid flow out of the first working pressure space and allowing free input flow into an opposite direction; a second counterbalance valve (Cb2) connected to the second pressure conduit and configured to restrict discharged fluid flow out of the second working pressure space and allowing free input flow into an opposite direction; and a control valve for controlling feeding and discharging of hydraulic fluid to and from the first and second working pressure spaces in order to control direction and speed of movement generated by the hydraulic actuator (HA); characterized in that the hydraulic system (HS) further comprises a first solenoid valve (Sv1) for controlling opening pressure of the first counterbalance valve (Cb1) and a second solenoid valve (Sv2) for controlling opening pressure of the second counterbalance valve (Cb2), whereby pressure of the hydraulic fluid discharging from the working pressure spaces of the hydraulic actuator (HA) is independently controllable.
A heating arrangement , comprising: a platform for a container to be heated; an attachment arrangement for attaching at least two containers of different sizes to the platform; at least one heating element configured to heat a container on the platform; characterized by : at least one sensor for detecting at least one property relating to the size of a container attached to the platform; and a control arrangement arranged to control the heating element(s) in dependence on the output of the sensor. a platform for a container to be heated; an attachment arrangement for attaching at least two containers of different sizes to the platform; at least one heating element configured to heat a container on the platform; characterized by : at least one sensor for detecting at least one property relating to the size of a container attached to the platform; and a control arrangement arranged to control the heating element(s) in dependence on the output of the sensor. at least one sensor for detecting at least one property relating to the size of a container attached to the platform; and a control arrangement arranged to control the heating element(s) in dependence on the output of the sensor.
A gas turbine combustor comprising: a combustor liner ; a combustor casing , wherein the combustor liner is at least partly housed within the combustor casing ; and a liner support arrangement, having individual support elements located between the combustor liner and the combustor casing , wherein each support element comprises a liner support member fixed to the combustor liner and a casing support member fastened to the combustor casing ; wherein each support element comprises at least one spring member arranged between the casing support member and the liner support member ; wherein each casing support member comprises a casing stop seat fixed on the combustor casing and a replaceable casing stop , detachably coupled to the casing stop seat ; wherein each casing stop comprises a female part forming a gap , wherein a male part of the corresponding liner stop is inserted; wherein the combustor casing is provided with apertures wherein the casing stop seats are housed; and wherein each casing stop seat is configured and arranged to receive and retain therein a respective casing stop , characterized in that each casing stop seat is provided with a depression having a shape corresponding to the shape of the casing stop , wherein in the bottom of the depression of each casing stop , through holes are provided, wherein each casing stop is constrained to the respective casing stop seat by means of bolts and related nuts , and wherein the bolts extend through the holes of the casing stop seat , a combustor liner ; a combustor casing , wherein the combustor liner is at least partly housed within the combustor casing ; and a liner support arrangement, having individual support elements located between the combustor liner and the combustor casing , wherein each support element comprises a liner support member fixed to the combustor liner and a casing support member fastened to the combustor casing ; wherein each support element comprises at least one spring member arranged between the casing support member and the liner support member ; wherein each casing support member comprises a casing stop seat fixed on the combustor casing and a replaceable casing stop , detachably coupled to the casing stop seat ; wherein each casing stop comprises a female part forming a gap , wherein a male part of the corresponding liner stop is inserted; wherein the combustor casing is provided with apertures wherein the casing stop seats are housed; and wherein each casing stop seat is configured and arranged to receive and retain therein a respective casing stop , characterized in that each casing stop seat is provided with a depression having a shape corresponding to the shape of the casing stop , wherein in the bottom of the depression of each casing stop , through holes are provided, wherein each casing stop is constrained to the respective casing stop seat by means of bolts and related nuts , and wherein the bolts extend through the holes of the casing stop seat ,
A reformer for the production of synthesis gas, hydrogen and/or dehydrogenation of propane or butane comprising at least the following components: - a reformer furnace having a reformer bottom , reformer walls and a reformer top ; - a first reformer tube and a second reformer tube , the first reformer tube and the second reformer tube being arranged at least in sections in the reformer furnace ; - at least one reformer burner arranged inside the reformer combustion chamber ; - characterized in that between the first reformer tube and the second reformer tube a cooling channel for cooling the reformer bottom to a range between 80°C and 50°C is arranged on or below the reformer bottom , in that the cooling duct is connected to a combustion air feed device in the form of a fan, and in that the reformer furnace is spatially separated from the cooling duct , and in that a flue gas venting duct is arranged between the first reformer tube and the second reformer tube , the flue gas venting duct being arranged above the cooling duct . - a reformer furnace having a reformer bottom , reformer walls and a reformer top ; - a first reformer tube and a second reformer tube , the first reformer tube and the second reformer tube being arranged at least in sections in the reformer furnace ; - at least one reformer burner arranged inside the reformer combustion chamber ; - characterized in that between the first reformer tube and the second reformer tube a cooling channel for cooling the reformer bottom to a range between 80°C and 50°C is arranged on or below the reformer bottom , in that the cooling duct is connected to a combustion air feed device in the form of a fan, and in that the reformer furnace is spatially separated from the cooling duct , and in that a flue gas venting duct is arranged between the first reformer tube and the second reformer tube , the flue gas venting duct being arranged above the cooling duct .
A camera module, wherein the camera module comprises a first lens , a second lens , and a photosensitive chip that are coaxially disposed in a first direction sequentially, the first direction is a thickness direction of the camera module, a clearance is disposed between every two of the first lens , the second lens , and the photosensitive chip , second reflective film is disposed on a side of the first lens close to the second lens , the second lens is entirely provided with a third reflective film on a side close to the photosensitive chip , a light-transmitting hole is provided on a middle part of the side of the second lens close to the photosensitive chip , and at least two adjusting lenses are disposed in the light-transmitting hole ; characterized in that a first reflective film is disposed on a side of the first lens away from the second lens . the camera module comprises a first lens , a second lens , and a photosensitive chip that are coaxially disposed in a first direction sequentially, the first direction is a thickness direction of the camera module, a clearance is disposed between every two of the first lens , the second lens , and the photosensitive chip , second reflective film is disposed on a side of the first lens close to the second lens , the second lens is entirely provided with a third reflective film on a side close to the photosensitive chip , a light-transmitting hole is provided on a middle part of the side of the second lens close to the photosensitive chip , and at least two adjusting lenses are disposed in the light-transmitting hole ; characterized in that a first reflective film is disposed on a side of the first lens away from the second lens .
A nonwoven fabric comprising a plurality of polypropylene-containing fibers that form a nonwoven web, which fibers in addition contain a slip agent, the web has a side which is provided with an alternating pattern which consists of individualized bonded areas which are in the form of rods which are arranged in the cross direction of the web, wherein the rods each in their length direction form an angle of 90° with the machine direction of the web, and the rods are arranged in such a way that in the machine direction of the web no uninterrupted regions exist along the web while in the cross direction of the web the arrangement of the rods defines a plurality of uninterrupted regions that extend continuously along the web, the alternating pattern of individualized bonded areas defines a non-bonded area, the web has a basis weight on the range of from 5-25 g/m 2 , the surface of the bonded areas is in the range of 5-20 % of the total surface of the side, and the surface of the non-bonded area is in the range of 80-95 % of the total surface of the side.
Encapsulated micropump having an integrated motor and at least one impeller for generating a fluid flow within a housing of the micropump, the impeller having a radial plain bearing with a bearing star for mounting an impeller journal of the impeller within the housing , wherein the impeller journal has a casing made of a different material than the bearing star , characterized in that the casing of the impeller journal forms a cap which has an extension beyond the bearing star .
A prosthetic heart valve comprising: an annular supporting structure including an annular stent portion (200; 1200; 2200, 4200; 5200; 6200; 7200; 8200), and a ring portion (100; 1100; 2100; 4100; 5100; 6100; 7100; 8100; 9100; 10100) that is substantially concentric with the stent portion but that is downstream from the stent portion in the direction of blood flow when the valve is in use in a patient, the stent portion having a blood-outflow region that includes a plurality of annularly spaced free-end commissure tips (236; 1236; 2236) at which the stent portion is closest to the ring portion, the ring portion being connected to the stent portion substantially solely by flexible strut structures (280; 1280; 2280; 4280) that extend from the stent portion to the ring portion adjacent to the commissure tips, each of the strut structures starting from a respective point or points on the stent structure that are farther from the ring portion than the commissure tips; and a plurality of valve leaflets supported by the stent portion, the ring portion being downstream from the stent portion sufficiently far that the leaflets cannot contact the ring portion; charaterised in that the ring portion is more resistant to annular compression than the stent portion. an annular supporting structure including an annular stent portion (200; 1200; 2200, 4200; 5200; 6200; 7200; 8200), and a ring portion (100; 1100; 2100; 4100; 5100; 6100; 7100; 8100; 9100; 10100) that is substantially concentric with the stent portion but that is downstream from the stent portion in the direction of blood flow when the valve is in use in a patient, the stent portion having a blood-outflow region that includes a plurality of annularly spaced free-end commissure tips (236; 1236; 2236) at which the stent portion is closest to the ring portion, the ring portion being connected to the stent portion substantially solely by flexible strut structures (280; 1280; 2280; 4280) that extend from the stent portion to the ring portion adjacent to the commissure tips, each of the strut structures starting from a respective point or points on the stent structure that are farther from the ring portion than the commissure tips; and a plurality of valve leaflets supported by the stent portion, the ring portion being downstream from the stent portion sufficiently far that the leaflets cannot contact the ring portion; charaterised in that the ring portion is more resistant to annular compression than the stent portion.
A method performed by a wireless device for determining Transmission Configuration Indication, TCI, states for receiving one or more Aperiodic, AP, Channel State Information Reference Signals, CSI-RSs, the method comprising: receiving downlink control information, DCI, in a physical downlink control channel, PDCCH, triggering one or more AP CSI-RSs in one or more symbols with a first time offset between a last symbol of the PDCCH and the first symbol of the one or more symbols containing the AP CSI-RSs, where the time offset is smaller than a first threshold; determining a Quasi Co-Location, QCL, assumption for receiving the one or more AP CSI-RSs based on a plurality of TCI states associated with one or more downlink transmissions scheduled by the DCI in the same one or more symbols as the one or more AP CSI-RSs, wherein the plurality of TCI states are indicated in a DCI scheduling the one or more downlink transmissions, wherein, when the time offset is smaller than the first threshold, the determined QCL assumption is a QCL assumption given by a TCI state of the plurality of TCI states indicated by the DCI scheduling the one or more downlink transmissions in a symbol of the same one or more symbols that are used for receiving the one or more AP CSI-RSs; and receiving the one or more AP CSI-RSs in the one or more symbols using the determined QCL assumption. receiving downlink control information, DCI, in a physical downlink control channel, PDCCH, triggering one or more AP CSI-RSs in one or more symbols with a first time offset between a last symbol of the PDCCH and the first symbol of the one or more symbols containing the AP CSI-RSs, where the time offset is smaller than a first threshold; determining a Quasi Co-Location, QCL, assumption for receiving the one or more AP CSI-RSs based on a plurality of TCI states associated with one or more downlink transmissions scheduled by the DCI in the same one or more symbols as the one or more AP CSI-RSs, wherein the plurality of TCI states are indicated in a DCI scheduling the one or more downlink transmissions, wherein, when the time offset is smaller than the first threshold, the determined QCL assumption is a QCL assumption given by a TCI state of the plurality of TCI states indicated by the DCI scheduling the one or more downlink transmissions in a symbol of the same one or more symbols that are used for receiving the one or more AP CSI-RSs; and receiving the one or more AP CSI-RSs in the one or more symbols using the determined QCL assumption.