mhurhangee/ep-ind-claims huggingface dataset:
A neural network processor circuit for performing neural network calculations for an artificial neural network having one or more network layers, wherein the neural network processor circuit comprises: a data plane including a plurality of compute resources (582, 556, 314, 656) and a plurality of assignable physical memory resources (584, 586, 588) operative to perform basic neural network computations thereby implementing a plurality of neurons in the artificial neural network; a control plane separate from said data plane and configured to be dynamically mapped to sets of compute resources in accordance with a number of computations required in said one or more network layers, said control plane operative to generate control signaling for said data plane; wherein said compute resources and said memory resources are aggregated in multiple levels to form a hierarchy; and wherein higher levels in said hierarchy are more complex and include a smaller number of instantiations than lower levels. a data plane including a plurality of compute resources (582, 556, 314, 656) and a plurality of assignable physical memory resources (584, 586, 588) operative to perform basic neural network computations thereby implementing a plurality of neurons in the artificial neural network; a control plane separate from said data plane and configured to be dynamically mapped to sets of compute resources in accordance with a number of computations required in said one or more network layers, said control plane operative to generate control signaling for said data plane; wherein said compute resources and said memory resources are aggregated in multiple levels to form a hierarchy; and wherein higher levels in said hierarchy are more complex and include a smaller number of instantiations than lower levels.
Exterior mirror for a motor vehicle, having at least one light guide (2, 2', 2") into which the light from at least one light source is able to be incoupled and, for realizing at least one light function, outcoupled again via at least one front side of the light guide acting as a light outcoupling surface, wherein the light can emerge from the exterior mirror to the outside through at least one opening of an exterior mirror housing (10, 11), wherein the front side of the light guide acting as a light outcoupling surface is covered by a transparent cover element and a distance (a) is formed at least regionally between the front side of the light guide acting as a light outcoupling surface and the cover element, characterized in that the light guide is nearly completely coated with at least one coating (B1; B2; B3), wherein the cover element is connected to the front side of the light guide and thus forms a unit with the light guide that is entirely provided with the coating, wherein the coating is transparent.
A heat-recovery-type refrigerating apparatus including a compressor, a heat-source-side heat exchanger (24, 25, 35), and a plurality of usage-side heat exchangers (52a, 52b, 52c, 52d) which can each individually be switched between functioning as refrigerant evaporators or refrigerant radiators, refrigerant being sent from said usage-side heat exchanger functioning as a refrigerant radiator to said usage-side heat exchanger functioning as a refrigerant evaporator, whereby heat can be recovered between said usage-side heat exchangers by simultaneously performing cooling/heating operation;) a portion of said heat-source-side heat exchanger is a precooling heat exchanger for always circulating high-pressure vapor refrigerant discharged from said compressor; a refrigerant cooler for cooling an electrical equipment item is connected to a downstream side of said precooling heat exchanger, and characterized by a refrigerant-cooling-side flow rate adjusting mechanism for adjusting a flow rate of refrigerant flowing through said precooling heat exchanger is connected to a downstream side of said refrigerant cooler.
A flexible display apparatus comprising: a display configured to display an object on a screen; a sensor configured to sense deformation of a shape of the display; and a controller configured to control the display to reconfigure the displayed object according to the deformed shape and display the reconfigured object, wherein the sensor is configured to sense a first area which corresponds to an area where the display is deformed into a concave shape with respect to the viewable side of the screen, or a second area which corresponds to an area where the display is deformed into a convex shape with respect to the viewable side of the screen, the flexible display apparatus being characterized in that the controller is configured to: control the display to reconfigure the displayed object on the first area or the second area and display the reconfigured object; calculate height information of the sensed first area or the sensed second area; and control the display to display a plurality of menu layers associated with the object on the first or second area, the number of menu layers being dependent on the height of the first or second area. a display configured to display an object on a screen; a sensor configured to sense deformation of a shape of the display; and a controller configured to control the display to reconfigure the displayed object according to the deformed shape and display the reconfigured object, wherein the sensor is configured to sense a first area which corresponds to an area where the display is deformed into a concave shape with respect to the viewable side of the screen, or a second area which corresponds to an area where the display is deformed into a convex shape with respect to the viewable side of the screen, the flexible display apparatus being characterized in that the controller is configured to: control the display to reconfigure the displayed object on the first area or the second area and display the reconfigured object; calculate height information of the sensed first area or the sensed second area; and control the display to display a plurality of menu layers associated with the object on the first or second area, the number of menu layers being dependent on the height of the first or second area. control the display to reconfigure the displayed object on the first area or the second area and display the reconfigured object; calculate height information of the sensed first area or the sensed second area; and control the display to display a plurality of menu layers associated with the object on the first or second area, the number of menu layers being dependent on the height of the first or second area.
A method comprising, at a mobile station: exchanging one or more messages with a location server to authenticate a positioning engine provisioned within said mobile station, wherein the positioning engine is a component of the mobile station dedicated to supporting positioning of the mobile station; receiving protected positioning assistance data, PPAD, based on an authentication of said positioning engine; and providing said PPAD to said authenticated positioning engine; wherein said PPAD is protected by: i) retaining PPAD in a secure manner and not providing PPAD to or making PPAD accessible to applications and/or a user; ii) not providing PPAD to applications indirectly in the form of a UE location that has been approximated as a nearby access point location using said PPAD; iii) keeping PPAD in secure memory such that applications and/or a user cannot access it; iv) discarding some or all PPAD after said mobile station leaves a venue; or v) some combination thereof. exchanging one or more messages with a location server to authenticate a positioning engine provisioned within said mobile station, wherein the positioning engine is a component of the mobile station dedicated to supporting positioning of the mobile station; receiving protected positioning assistance data, PPAD, based on an authentication of said positioning engine; and providing said PPAD to said authenticated positioning engine; wherein said PPAD is protected by: i) retaining PPAD in a secure manner and not providing PPAD to or making PPAD accessible to applications and/or a user; ii) not providing PPAD to applications indirectly in the form of a UE location that has been approximated as a nearby access point location using said PPAD; iii) keeping PPAD in secure memory such that applications and/or a user cannot access it; iv) discarding some or all PPAD after said mobile station leaves a venue; or v) some combination thereof. i) retaining PPAD in a secure manner and not providing PPAD to or making PPAD accessible to applications and/or a user; ii) not providing PPAD to applications indirectly in the form of a UE location that has been approximated as a nearby access point location using said PPAD; iii) keeping PPAD in secure memory such that applications and/or a user cannot access it; iv) discarding some or all PPAD after said mobile station leaves a venue; or v) some combination thereof.
An apparatus comprising: • radio interface means for setting up a terminal-specific connection-oriented point-to-point link to provide access to a local packet-switched network (300, 500); • link layer processing means for switching said terminal-specific connection-oriented point-to-point link on a link layer level to the packet-switched network, so that a point of attachment for said access is located in said local packet-switched network (300, 500); and • network interface means for providing a terminal-specific termination point for said local packet-switched network (300, 500), characterized in that the point-to-point link and an access link are able to use different link layer addressing schemes. • radio interface means for setting up a terminal-specific connection-oriented point-to-point link to provide access to a local packet-switched network (300, 500); • link layer processing means for switching said terminal-specific connection-oriented point-to-point link on a link layer level to the packet-switched network, so that a point of attachment for said access is located in said local packet-switched network (300, 500); and • network interface means for providing a terminal-specific termination point for said local packet-switched network (300, 500), characterized in that the point-to-point link and an access link are able to use different link layer addressing schemes.
Air spring for a motor vehicle, wherein the air spring has a device for noncontact distance measurement in accordance with the pulse-echo method within the air spring of the motor vehicle, wherein the air spring has at least one rolling piston, a rolling bellows and a closure plate, and the device has a transmitting-receiving component with a sound cone and a reflector component (2, 3, 400), characterized in that the reflector component has a reflection surface made of backscatter elements, which has a form of approximately longitudinally bisected truncated cones touching one another and lined up in the form of a ring, wherein the reflection bodies formed in this way are also designated truncated cone sectors and the truncated cone sectors are radially aligned and have a conicity designed such that the vertices, projecting from the reflection surface, of all the truncated cone sectors touch an imaginary common plane and intersect such that the sector angles (11, 12) formed by the individual truncated cone sectors are always less than 180°.
A method of wireless communication performed by a user equipment, UE, the method comprising: determining that a condition for entering a reduced monitoring state is satisfied; entering the reduced monitoring state and utilizing at least one of: a diminished radio frequency, RF, chain configuration, a diminished channel monitoring configuration, a restriction on receiving or transmitting a shared channel or a control channel, or a combination thereof; communicating using the reduced monitoring state, characterized by: determining that a condition for entering the reduced monitoring state is no longer satisfied based on receiving downlink control information, from a base station, indicating that the UE is to leave the reduced monitoring state, wherein the downlink control information schedules a transmission, and wherein the transmission is performed after a timing offset, said timing offset based on information indicating a minimum supported timing offset provided by the UE; and leaving the reduced monitoring state based on a timing offset relative to the minimum supported timing offset provided to the base station. determining that a condition for entering a reduced monitoring state is satisfied; entering the reduced monitoring state and utilizing at least one of: a diminished radio frequency, RF, chain configuration, a diminished channel monitoring configuration, a restriction on receiving or transmitting a shared channel or a control channel, or a combination thereof; a diminished radio frequency, RF, chain configuration, a diminished channel monitoring configuration, a restriction on receiving or transmitting a shared channel or a control channel, or a combination thereof; communicating using the reduced monitoring state, characterized by: determining that a condition for entering the reduced monitoring state is no longer satisfied based on receiving downlink control information, from a base station, indicating that the UE is to leave the reduced monitoring state, wherein the downlink control information schedules a transmission, and wherein the transmission is performed after a timing offset, said timing offset based on information indicating a minimum supported timing offset provided by the UE; and leaving the reduced monitoring state based on a timing offset relative to the minimum supported timing offset provided to the base station. determining that a condition for entering the reduced monitoring state is no longer satisfied based on receiving downlink control information, from a base station, indicating that the UE is to leave the reduced monitoring state, wherein the downlink control information schedules a transmission, and wherein the transmission is performed after a timing offset, said timing offset based on information indicating a minimum supported timing offset provided by the UE; and leaving the reduced monitoring state based on a timing offset relative to the minimum supported timing offset provided to the base station.
A powder applying apparatus comprising: a driver arranged to move a member in a predetermined direction; a powder supplier arranged to supply powder onto a surface of the member; and a squeegee having a distance from the member, the squeegee being arranged to adjust a thickness of the powder supplied onto the surface of the member by the powder supplier, wherein the squeegee is arranged to vibrate at a frequency of 2 kHz or more and 300 kHz or less, wherein the squeegee is arranged to vibrate in a horizontal direction parallel to a main surface of the squeegee and in a perpendicular direction perpendicular to the main surface of the squeegee, and a magnitude of vibration in the horizontal direction is larger than a magnitude of vibration in the perpendicular direction. a driver arranged to move a member in a predetermined direction; a powder supplier arranged to supply powder onto a surface of the member; and a squeegee having a distance from the member, the squeegee being arranged to adjust a thickness of the powder supplied onto the surface of the member by the powder supplier, wherein the squeegee is arranged to vibrate at a frequency of 2 kHz or more and 300 kHz or less, wherein the squeegee is arranged to vibrate in a horizontal direction parallel to a main surface of the squeegee and in a perpendicular direction perpendicular to the main surface of the squeegee, and a magnitude of vibration in the horizontal direction is larger than a magnitude of vibration in the perpendicular direction.
A method of producing chlorine dioxide gas by passing a dilute mixture of chlorine gas with an inert gas being one of air or nitrogen through a bed of sodium chlorite pellets containing other salts which can form hydrates, and containing water of hydration greater than 5% of the anhydrous weight of sodium chlorite, but less than the weight of water required to fully hydrate the salts, wherein the other salts are partially hydrated, and wherein the method includes the step of sizing the solid sodium chlorite pellets to pass through a 3 mesh screen (6.73 mm) and be retained in a 30 mesh screen (0.595 mm) and the step of maintaining a relative humidity less than 50% in the dilute chlorine gas.
A chimeric protein comprising: (a) a targeting moiety comprising a recognition domain which recognizes and binds to C-type lectin domain family 9 member A (Clec9A), wherein the recognition domain comprises a heavy-chain-only antibody, a humanized VHH, or a camelized VHH; and (b) a modified signaling agent, wherein the modified signaling agent is a human interferon alpha 2 (IFNα2) comprising an amino acid sequence having at least 98% identity with a sequence selected from SEQ ID NO: 86 or 87 and having one or more mutations at positions R149, L153, and M148 with respect to SEQ ID NO: 86 or 87; wherein the mutated human IFNα2 has reduced affinity or activity as compared to wild type human IFNα2, and wherein the reduced affinity or activity of the mutated human IFNα2 is restorable by attachment to the targeting moiety. (a) a targeting moiety comprising a recognition domain which recognizes and binds to C-type lectin domain family 9 member A (Clec9A), wherein the recognition domain comprises a heavy-chain-only antibody, a humanized VHH, or a camelized VHH; and (b) a modified signaling agent, wherein the modified signaling agent is a human interferon alpha 2 (IFNα2) comprising an amino acid sequence having at least 98% identity with a sequence selected from SEQ ID NO: 86 or 87 and having one or more mutations at positions R149, L153, and M148 with respect to SEQ ID NO: 86 or 87;
A method of expanding hematopoietic stem/progenitor cells, comprising culturing isolated hematopoietic stem/progenitor cells ex vivo in the presence of a composition comprising a Notch agonist and an aryl hydrocarbon receptor antagonist, thereby producing an expanded hematopoietic stem/progenitor cell sample, wherein optionally the isolated hematopoietic stem/ progenitor cells are human.
Drive axle for an agricultural or industrial vehicle comprising: - a central box-shaped body for containing a differential; - two fixed tubular arms fixed by opposite parts to the box-shaped body; - two tubular movable arms, each slidingly inserted in a respective fixed arm; - two hubs, each connected to a respective movable arm in order to support respective wheels; - two adjustment actuators, each active between a respective fixed arm and the corresponding movable arm in order to change the distance between hubs between a minimum distance configuration and a maximum distance configuration; - an antirotation device active between each fixed arm and each movable arm; characterized in that said antirotation device being active on opposite sides of fixed arms and movable arms; and in that said antirotation device comprises at least two tabs externally fixed to each movable arm and respective slide guides fixed to respective fixed arms and turned toward said tabs. - a central box-shaped body for containing a differential; - two fixed tubular arms fixed by opposite parts to the box-shaped body; - two tubular movable arms, each slidingly inserted in a respective fixed arm; - two hubs, each connected to a respective movable arm in order to support respective wheels; - two adjustment actuators, each active between a respective fixed arm and the corresponding movable arm in order to change the distance between hubs between a minimum distance configuration and a maximum distance configuration; - an antirotation device active between each fixed arm and each movable arm; characterized in that said antirotation device being active on opposite sides of fixed arms and movable arms; and in that said antirotation device comprises at least two tabs externally fixed to each movable arm and respective slide guides fixed to respective fixed arms and turned toward said tabs.
A TiO 2 -containing silica glass, having a TiO 2 content of from 7.5 to 12 % by mass, a temperature at which a coefficient of linear thermal expansion is 0 ppb/°C, falling within a range of from 40 to 110 °C, and a standard deviation (σ) of a stress level of striae of 0.03 MPa or lower within an area of 30 mm × 30 mm in at least one plane.
A system-on-chip configured to access and process contents stored in a secure domain, wherein the system-on-chip comprises: a processing unit driven by at least one of a secure operating system and a non-secure operating system; at least one hardware block configured to access the contents according to control of the processing unit comprising a master port and a slave port which are set to have different security attributes; and an access control unit configured to set security attributes of the slave port and the master port or an access authority on each of the secure domain and the non-secure domain of a working memory; characterised by at least one memory management unit (140, 340) configured to control access of the at least one hardware block to the working memory or a memory protection unit configured to limit an access of the at least one hardware block to the working memory. a processing unit driven by at least one of a secure operating system and a non-secure operating system; at least one hardware block configured to access the contents according to control of the processing unit comprising a master port and a slave port which are set to have different security attributes; and an access control unit configured to set security attributes of the slave port and the master port or an access authority on each of the secure domain and the non-secure domain of a working memory; characterised by at least one memory management unit (140, 340) configured to control access of the at least one hardware block to the working memory or a memory protection unit configured to limit an access of the at least one hardware block to the working memory.
A method for estimating a trajectory of a robot (100, 200), the method comprising: fusing (208, 502) a plurality of robot velocity measurements from a plurality of robot sensors (402, 406) located within the robot (100, 200) to generate a fused robot velocity; and applying Kalman filtering (210, 504) to the fused robot velocity and a measured linear acceleration from an inertial measurement unit to compute a current robot location, wherein fusing the plurality of robot velocity measurements comprises fusing an optical flow sensor velocity measurement and a wheel encoder sensor velocity measurement, characterized in that fusing the optical flow sensor velocity measurement and the wheel encoder sensor velocity measurement comprises computing a weighted sum of the optical flow sensor velocity measurement and the wheel encoder sensor velocity measurement. fusing (208, 502) a plurality of robot velocity measurements from a plurality of robot sensors (402, 406) located within the robot (100, 200) to generate a fused robot velocity; and applying Kalman filtering (210, 504) to the fused robot velocity and a measured linear acceleration from an inertial measurement unit to compute a current robot location, wherein fusing the plurality of robot velocity measurements comprises fusing an optical flow sensor velocity measurement and a wheel encoder sensor velocity measurement, characterized in that fusing the optical flow sensor velocity measurement and the wheel encoder sensor velocity measurement comprises computing a weighted sum of the optical flow sensor velocity measurement and the wheel encoder sensor velocity measurement.