mhurhangee/ep-ind-claims huggingface dataset:
An emergency call failure mitigation method, comprising: receiving an emergency service call from a calling party (802, 902) pertaining to an emergency situation; determining that no voice trunking path is available to a local public safety answering point PSAP (332, 510) to service the emergency service call; and characterized by, in response to determining that no voice trunking path is available: routing the calling party to a messaging system (320, 518) operative to prompt the calling party (802, 902) to provide one or more responses relating to the emergency situation; generating by the messaging system (320, 518) a messaging object including identity of a call receiving device associated with the calling party (802, 902), and priority of the emergency service call determined based on one or more responses provided by the calling party (802, 902); and forwarding the messaging object to the local public safety answering point (332, 510) and/or to another public safety answering point. receiving an emergency service call from a calling party (802, 902) pertaining to an emergency situation; determining that no voice trunking path is available to a local public safety answering point PSAP (332, 510) to service the emergency service call; and characterized by, in response to determining that no voice trunking path is available: routing the calling party to a messaging system (320, 518) operative to prompt the calling party (802, 902) to provide one or more responses relating to the emergency situation; generating by the messaging system (320, 518) a messaging object including identity of a call receiving device associated with the calling party (802, 902), and priority of the emergency service call determined based on one or more responses provided by the calling party (802, 902); and forwarding the messaging object to the local public safety answering point (332, 510) and/or to another public safety answering point. routing the calling party to a messaging system (320, 518) operative to prompt the calling party (802, 902) to provide one or more responses relating to the emergency situation; generating by the messaging system (320, 518) a messaging object including identity of a call receiving device associated with the calling party (802, 902), and priority of the emergency service call determined based on one or more responses provided by the calling party (802, 902); and forwarding the messaging object to the local public safety answering point (332, 510) and/or to another public safety answering point.
Nozzle check valve, comprising the following features: 1.1 a housing; 1.2 an insert which is connected to the housing via webs (2.1); 1.3 a flow channel which is formed between the inner face of the housing and the outer face of the insert; 1.4 the insert has an axial bore; 1.5 a shaft which is slidably mounted in the axial bore and which carries a valve plate at one end; 1.6 the valve plate and the housing together form a valve seat; 1.7 the valve plate consists of a main body (7.1) and a coating (7.2); 1.8 a seal is provided between the valve plate and the shaft; 1.9 the face of the insert that bounds the flow channel is formed of a cup-shaped wall (2.2); 1.10 the cup-shaped wall (2.2) encloses a cavity; 1.11 the inflow edge of the insert has an open-edged cutout (2.3); characterized by the following features: 1.12 the wall (2.2) of the cavity has a bore which enables the cavity to be flushed through; 1.13 the coating (7.2) fully covers the face of the main body (7.1) that makes contact with the medium. 1.1 a housing; 1.2 an insert which is connected to the housing via webs (2.1); 1.3 a flow channel which is formed between the inner face of the housing and the outer face of the insert; 1.4 the insert has an axial bore; 1.5 a shaft which is slidably mounted in the axial bore and which carries a valve plate at one end; 1.6 the valve plate and the housing together form a valve seat; 1.7 the valve plate consists of a main body (7.1) and a coating (7.2); 1.8 a seal is provided between the valve plate and the shaft; 1.9 the face of the insert that bounds the flow channel is formed of a cup-shaped wall (2.2); 1.10 the cup-shaped wall (2.2) encloses a cavity; 1.11 the inflow edge of the insert has an open-edged cutout (2.3); 1.12 the wall (2.2) of the cavity has a bore which enables the cavity to be flushed through; 1.13 the coating (7.2) fully covers the face of the main body (7.1) that makes contact with the medium.
Peristaltic pump for conveying a fluid conveyed medium, comprising a hose, a saddle having an arc-shaped inner saddle surface and a rotor that is arranged in the saddle so as to be rotatable about an axis of rotation and comprises a plurality of hose-squeezing means which are angularly distributed around the axis of rotation, are at least periodically arranged so as to be opposite the inner saddle surface and are intended to apply external pressure to the hose that is to be arranged between the inner saddle surface and the rotor, in such a way that, during rotation of the rotor, a corresponding local narrowing of the passage cross section of the hose caused by a hose-squeezing means applying external pressure to the hose can move along the inner saddle surface together with the relevant hose-squeezing means in order to convey the conveyed medium in the hose, the saddle comprising, along the inner saddle surface, an immersion region, a sealing region and an emergence region for the hose-squeezing means, and the radial distance between the axis of rotation of the rotor and the inner saddle surface decreasing in the immersion region, remaining constant in the sealing region, and increasing in the emergence region, such that the hose-squeezing means apply increasing pressure to the hose when moving through the immersion region, while causing the passage cross section of the hose to narrow, and can release the hose when moving through the emergence region in order to remove or at least reduce the narrowing in question, characterised in that the hose-squeezing means are provided on the rotor in an angularly spaced manner and the emergence region extends over such an angular range around the axis of rotation of the rotor that, in each case, two successive hose-squeezing means are in the emergence region during rotation of the rotor, the inner saddle surface extending in the emergence region such that the radial distance between the inner saddle surface and the axis of rotation of the rotor varies along the movement path of the hose-squeezing means in such a way that, in order to compensate for pulsation effects which arise in the conveyed medium on account of the change in the application of pressure to the hose by means of one of the two hose-squeezing means in each case together traversing the emergence region, a modulation of the application of pressure to the hose by means of the hose-squeezing means during traversal of the emergence region occurs by means of a change in the pressure applied to the hose by means of the other of the two hose-squeezing means in each case together traversing the emergence region during traversal of the emergence region.
A compound represented by the formula: wherein R 1 is a hydrocarbon group having a carbon number of 1 to 30, R 2 is a hydrocarbon group having a carbon number of 1 to 20, R 3 is a hydrogen atom or hydrocarbon group having a carbon number of 1 to 5, R 4 and R 5 are the same or different and each is a hydrogen atom or a hydrocarbon group having a carbon number of 1 to 5, or R 4 and R 5 in combination form a divalent hydrocarbon group having a carbon number of 1 to 5, and optionally form a ring structure together with the adjacent ethylenedioxy, or a salt thereof.
Apparatus for coating an injection medical device, comprising: - an inlet tank that can be filled with a coating substance; - a delivery nozzle; - a supply assembly interposed between, and in fluid communication with, said inlet tank and said delivery nozzle, said supply assembly being configured to withdraw the coating substance from said inlet tank and to supply it to said delivery nozzle; characterised in that said delivery nozzle is configured to deliver said coating substance to an injection medical device and in that said supply assembly comprises at least one sterilisation filter (30a, 30b) configured to filter the coating substance withdrawn from said inlet tank. - an inlet tank that can be filled with a coating substance; - a delivery nozzle; - a supply assembly interposed between, and in fluid communication with, said inlet tank and said delivery nozzle, said supply assembly being configured to withdraw the coating substance from said inlet tank and to supply it to said delivery nozzle;
A method for camera calibration comprising: rendering pixels in a synthetic image (300, 505) of a target pattern by tracing a plurality of rays (230, 235) from the pixels to corresponding points on the target pattern based on model parameters for a camera (105, 610, 611, 612, 613); and modifying the model parameters to reduce a measure of distance between intensities of the pixels in the synthetic image and intensities of pixels in an actual image of the target pattern generated by the camera; wherein the model parameters comprise intrinsic model parameters and extrinsic model parameters; and characterized in that tracing the plurality of rays comprises tracing a ray from a central point in each pixel to a plane of the target pattern to determine an intersection point and determining an intensity for the pixel based on a proximity of the intersection point to a feature in the target pattern. rendering pixels in a synthetic image (300, 505) of a target pattern by tracing a plurality of rays (230, 235) from the pixels to corresponding points on the target pattern based on model parameters for a camera (105, 610, 611, 612, 613); and modifying the model parameters to reduce a measure of distance between intensities of the pixels in the synthetic image and intensities of pixels in an actual image of the target pattern generated by the camera; wherein the model parameters comprise intrinsic model parameters and extrinsic model parameters; and characterized in that tracing the plurality of rays comprises tracing a ray from a central point in each pixel to a plane of the target pattern to determine an intersection point and determining an intensity for the pixel based on a proximity of the intersection point to a feature in the target pattern.
An outdoor unit of a refrigerating apparatus, comprising: a casing in which an outdoor heat exchanger, an air blower configured to blow air to an outside of the casing, and an electric component unit in which an electric component is accommodated are arranged, wherein the electric component unit includes an inlet part which communicates with an outlet side of the air blower and through which air on the outlet side is arranged to flow into the electric component unit, and an outlet part which communicates with an inlet side of the air blower and through which air is arranged to flow out from the electric component unit, wherein the casing has a side surface formed with an air inlet port, and the outdoor heat exchanger is arranged so as to face the air inlet port, characterized in that the air blower includes a fan and a bell mouth provided so as to surround an outer periphery of the fan, and is arranged above the air inlet port in the casing such that air is blown upward, the electric component unit is arranged on the periphery of the bell mouth in the casing, and in the casing, a stay (20a, 20b) configured to support a bottom part of the electric component unit is provided between a first chamber which is formed on an upper side inside the casing and in which the air blower and the electric component unit are arranged and a second chamber which is formed on a lower side inside the casing and in which the outdoor heat exchanger is arranged a casing in which an outdoor heat exchanger, an air blower configured to blow air to an outside of the casing, and an electric component unit in which an electric component is accommodated are arranged, wherein the electric component unit includes an inlet part which communicates with an outlet side of the air blower and through which air on the outlet side is arranged to flow into the electric component unit, and an outlet part which communicates with an inlet side of the air blower and through which air is arranged to flow out from the electric component unit, an inlet part which communicates with an outlet side of the air blower and through which air on the outlet side is arranged to flow into the electric component unit, and an outlet part which communicates with an inlet side of the air blower and through which air is arranged to flow out from the electric component unit, wherein the casing has a side surface formed with an air inlet port, and the outdoor heat exchanger is arranged so as to face the air inlet port, characterized in that the air blower includes a fan and a bell mouth provided so as to surround an outer periphery of the fan, and is arranged above the air inlet port in the casing such that air is blown upward, the electric component unit is arranged on the periphery of the bell mouth in the casing, and in the casing, a stay (20a, 20b) configured to support a bottom part of the electric component unit is provided between a first chamber which is formed on an upper side inside the casing and in which the air blower and the electric component unit are arranged and a second chamber which is formed on a lower side inside the casing and in which the outdoor heat exchanger is arranged
A see-through optical head-worn display apparatus for offering an unobstructed view of the surrounding environment when worn by a user, comprising: an image generating component configured to generate an image; a tilted primary mirror having a non-flat, freeform, front optical surface; a tilted secondary mirror having a non-flat, freeform, front optical surface, and an external pupil; wherein the apparatus is configured to offer an unobstructed view of the surrounding environment, while overlaying a magnification of the image generated by the image-generating component. an image generating component configured to generate an image; a tilted primary mirror having a non-flat, freeform, front optical surface; a tilted secondary mirror having a non-flat, freeform, front optical surface, and an external pupil; wherein the apparatus is configured to offer an unobstructed view of the surrounding environment, while overlaying a magnification of the image generated by the image-generating component.
A method for wireless communications by a user equipment, UE, comprising: receiving a grant scheduling a first higher priority channel that has a higher priority than each channel of a plurality of lower priority channels scheduled for the UE; dropping a first lower priority channel of the plurality of lower priority channels that at least partially overlaps in time with the first higher priority channel based at least in part on determining that the grant is received prior to a multiplexing deadline for the plurality of lower priority channels; multiplexing the remaining lower priority channels of the plurality of lower priority channels; and transmitting or receiving a first transmission using the first higher priority channel and a second transmission using the multiplexed lower priority channels of the plurality of lower priority channels based at least in part on the dropping. receiving a grant scheduling a first higher priority channel that has a higher priority than each channel of a plurality of lower priority channels scheduled for the UE; dropping a first lower priority channel of the plurality of lower priority channels that at least partially overlaps in time with the first higher priority channel based at least in part on determining that the grant is received prior to a multiplexing deadline for the plurality of lower priority channels; multiplexing the remaining lower priority channels of the plurality of lower priority channels; and transmitting or receiving a first transmission using the first higher priority channel and a second transmission using the multiplexed lower priority channels of the plurality of lower priority channels based at least in part on the dropping.
A specimen storage device configured to be connected to a specimen imaging apparatus and for storing an imaged specimen plate that has been imaged by said specimen imaging apparatus in a rack which has a bottom wall, side walls (58a, 58b) and an opening at an upper side, the specimen storage device comprising: a rack transport mechanism configured to transport the rack with the opening directed upward; and a specimen transport mechanism configured to transport the imaged specimen plate in an up-down direction, wherein the rack transport mechanism is configured to transport the rack to a predetermined specimen storage position, and the specimen transport mechanism is configured to store the imaged specimen plate in the rack positioned at the specimen storage position, wherein the rack transport mechanism is configured to transport the rack in a horizontal direction, the specimen transport mechanism comprises a holder configured to hold and release the imaged specimen plate; the specimen transport mechanism is configured to transport the holder holding the imaged specimen plate to above the specimen storage position, then lowers the holder to store the imaged specimen plate in the rack at the specimen storage position, and thereafter, releases the holder; and the specimen storage device further comprises a control section configured to control the rack transport mechanism and the specimen transport mechanism, and configured to be communicably connected to a control section of the specimen imaging apparatus. a rack transport mechanism configured to transport the rack with the opening directed upward; and a specimen transport mechanism configured to transport the imaged specimen plate in an up-down direction, wherein the rack transport mechanism is configured to transport the rack to a predetermined specimen storage position, and the specimen transport mechanism is configured to store the imaged specimen plate in the rack positioned at the specimen storage position, wherein the rack transport mechanism is configured to transport the rack in a horizontal direction, the specimen transport mechanism comprises a holder configured to hold and release the imaged specimen plate; the specimen transport mechanism is configured to transport the holder holding the imaged specimen plate to above the specimen storage position, then lowers the holder to store the imaged specimen plate in the rack at the specimen storage position, and thereafter, releases the holder; and the specimen storage device further comprises a control section configured to control the rack transport mechanism and the specimen transport mechanism, and configured to be communicably connected to a control section of the specimen imaging apparatus.
A take out arm, for an IS production machine, wherein said take out arm comprises at least an input shaft, a gear box (1,3,5,8), an output shaft and a tongue head, wherein the arm comprise shock absorbing means to allow a rotation of the tongue head on the output shaft upon an impact on the take out arm and a return to an operating position of the take out arm relative to the output shaft following said impact.
A device for storage and exchange of thermal energy of solar origin, which device is configured to receive a concentrated solar radiation using an optical system, which device comprises: - a casing which defines an internal compartment and has an irradiation opening configured to allow entry of the concentrated solar radiation, which opening puts in direct communication said internal compartment with the external environment being devoid, in use, of closure or screen means, said opening being preferably arranged at an upper wall of said casing; - a bed of fluidizable solid particles, received within said internal compartment of said casing, - means of fluidization of said bed of particles, configured to feed a fluidizing gas within said compartment, which fluidization means is configured to determine a first fluid-dynamic regimen in said operative region different from a second fluid-dynamic regimen in said accumulation region, wherein in particular said first and second fluid-dynamic regimens are based upon different fluidization speeds the device being characterised in that the bed has an operative region directly exposed, in use, to the concentrated solar radiation that enters through said opening and a heat accumulation region adjacent to the operative region 30; and in that the overall configuration is such that, in use, the particles of said operative region absorb thermal energy from the solar radiation and they give it to the particles of said accumulation region. - a casing which defines an internal compartment and has an irradiation opening configured to allow entry of the concentrated solar radiation, which opening puts in direct communication said internal compartment with the external environment being devoid, in use, of closure or screen means, said opening being preferably arranged at an upper wall of said casing; - a bed of fluidizable solid particles, received within said internal compartment of said casing, - means of fluidization of said bed of particles, configured to feed a fluidizing gas within said compartment, which fluidization means is configured to determine a first fluid-dynamic regimen in said operative region different from a second fluid-dynamic regimen in said accumulation region, wherein in particular said first and second fluid-dynamic regimens are based upon different fluidization speeds the device being characterised in that the bed has an operative region directly exposed, in use, to the concentrated solar radiation that enters through said opening and a heat accumulation region adjacent to the operative region 30; and in that the overall configuration is such that, in use, the particles of said operative region absorb thermal energy from the solar radiation and they give it to the particles of said accumulation region.
A method of processing heart rate data comprising: a processor (213, 223, 230) processing (421, 422) heart rate data, obtained from a user by a sensor device over a monitoring period of at least one day, in dependence on biometric data for the user, to determine (120, 423) an aggregate heartbeat value for the user over said monitoring period; a processor (213, 223, 230) determining a health-predictive activity score from said aggregate heartbeat value according to a model calibrated with peak oxygen uptake of population study subjects; a processor (213, 223, 230) determining (130, 432) a health risk indicator for the user derived from said health-predictive activity score; and a user device (210, 220) providing said health risk indicator to the user by means of a user interface (211, 221). a processor (213, 223, 230) processing (421, 422) heart rate data, obtained from a user by a sensor device over a monitoring period of at least one day, in dependence on biometric data for the user, to determine (120, 423) an aggregate heartbeat value for the user over said monitoring period; a processor (213, 223, 230) determining a health-predictive activity score from said aggregate heartbeat value according to a model calibrated with peak oxygen uptake of population study subjects; a processor (213, 223, 230) determining (130, 432) a health risk indicator for the user derived from said health-predictive activity score; and a user device (210, 220) providing said health risk indicator to the user by means of a user interface (211, 221).