mhurhangee/patent-ind-claim-en huggingface dataset:
A method, performed by an intelligent personal assistant , comprising: reflecting light from an area around the intelligent personal assistant by a reflector into an interior of the intelligent personal assistant, wherein the reflector is supported by a rigid, transparent support structure that maintains the reflector in a position above the housing; receiving, while the rigid, transparent support structure is in an extended position, the reflected light from the reflector by a digital camera positioned inside the intelligent personal assistant and converting the light into electronic signals; receiving the electronic signals from the digital camera by a processor ; determining, by the processor, an identity of a user in proximity to the intelligent personal assistant based on the electronic signals; causing, by the processor, an action to be performed based on the identity of the user, and stowing the rigid, transparent support structure inside the housing, thereby placing the rigid, transparent support structure into a retracted position and preventing the camera from receiving light from the area surrounding the intelligent personal assistant , wherein stowing the rigid, transparent support structure inside the intelligent personal assistant comprises receiving manual input from the user, pushing the rigid, transparent support structure inside the intelligent personal assistant. reflecting light from an area around the intelligent personal assistant by a reflector into an interior of the intelligent personal assistant, wherein the reflector is supported by a rigid, transparent support structure that maintains the reflector in a position above the housing; receiving, while the rigid, transparent support structure is in an extended position, the reflected light from the reflector by a digital camera positioned inside the intelligent personal assistant and converting the light into electronic signals; receiving the electronic signals from the digital camera by a processor ; determining, by the processor, an identity of a user in proximity to the intelligent personal assistant based on the electronic signals; causing, by the processor, an action to be performed based on the identity of the user, and stowing the rigid, transparent support structure inside the housing, thereby placing the rigid, transparent support structure into a retracted position and preventing the camera from receiving light from the area surrounding the intelligent personal assistant , wherein stowing the rigid, transparent support structure inside the intelligent personal assistant comprises receiving manual input from the user, pushing the rigid, transparent support structure inside the intelligent personal assistant.
A gas flowmeter comprising: a body having a passage that communicates with an inlet and an outlet for receiving gas flow therethrough; a selectively variable valve mounted on the side of body prior to the outlet thereby to control a flow of gas to the outlet ; a transparent tube fixed at a first end to the body and receiving at its second end a cap , the body , the transparent tube and the cap together defining a pressurized chamber ; a transparent rotameter tube provided in a centre of the pressurized chamber , the rotameter tube defining a chamber sealed at a first end to the body and connected at its second end to the cap ; a transparent cover outside of the pressurized chamber , the cover comprising multiple calibrated scales operatively associated with the passage that represent a flow rate of gas through the passage; and first and second floats having different material properties received within the transparent rotameter tube and viewable in operative association with the multiple calibrated scales . a body having a passage that communicates with an inlet and an outlet for receiving gas flow therethrough; a selectively variable valve mounted on the side of body prior to the outlet thereby to control a flow of gas to the outlet ; a transparent tube fixed at a first end to the body and receiving at its second end a cap , the body , the transparent tube and the cap together defining a pressurized chamber ; a transparent rotameter tube provided in a centre of the pressurized chamber , the rotameter tube defining a chamber sealed at a first end to the body and connected at its second end to the cap ; a transparent cover outside of the pressurized chamber , the cover comprising multiple calibrated scales operatively associated with the passage that represent a flow rate of gas through the passage; and first and second floats having different material properties received within the transparent rotameter tube and viewable in operative association with the multiple calibrated scales .
A graphics processor unit, GPU , comprising: an integrated graphics processing unit, iGPU; a discrete graphics processing unit, dGPU; and logic configured to adaptively apply a threshold power point, TPP, to determine which one of the iGPU or dGPU is to execute a rendering task, where the TPP is determined by stressing the GPU with various applications and is a crossover point representing the power below which iGPU performance for executing any of the various applications is the same as the dGPU performance but at a lower energy consumption, and above which dGPU performance is higher than iGPU performance, wherein the logic is configured to determine whether the average power consumption for executing the rendering task on any of the iGPU or dGPU is greater than the TPP, the logic is configured to select the dGPU to execute the rendering task if the average power consumption is greater than the TPP, and the logic is configured to select the iGPU to execute the rendering task if the average power consumption is less than the TPP. an integrated graphics processing unit, iGPU; a discrete graphics processing unit, dGPU; and logic configured to adaptively apply a threshold power point, TPP, to determine which one of the iGPU or dGPU is to execute a rendering task, where the TPP is determined by stressing the GPU with various applications and is a crossover point representing the power below which iGPU performance for executing any of the various applications is the same as the dGPU performance but at a lower energy consumption, and above which dGPU performance is higher than iGPU performance, wherein the logic is configured to determine whether the average power consumption for executing the rendering task on any of the iGPU or dGPU is greater than the TPP, the logic is configured to select the dGPU to execute the rendering task if the average power consumption is greater than the TPP, and the logic is configured to select the iGPU to execute the rendering task if the average power consumption is less than the TPP.
A method for detecting a zone with heavy precipitation by means of a radar-signal-transmitting radar system which has a display and is provided on an aircraft for detecting a terrain , comprising the following steps: - adjusting (S110) an elevation angle (Θ el ) on the basis of an altitude (FL) of the aircraft or a range of a radar detection by the radar system that can be displayed on the display; - receiving (S120) the reflected radar signals from the zone with heavy precipitation; - changing (S130) a gain of the received radar signals on the basis of the displayable range or an estimated distance from the zone with heavy precipitation in order to avoid saturation in the radar detection; - determining a reflection factor and, based thereon, an amount of precipitation; - determining (S140) the zone with heavy precipitation based on the reflection factor for the received radar signals; and - displaying (S150) the zone with heavy precipitation on the display, characterized in that the determination of the amount of precipitation comprises a correction of the reflection factor based on an attenuation of the radar signal in the zone with heavy precipitation and the determination of the attenuation comprises the following steps: - determining a front of the zone with heavy precipitation, - determining an amount of precipitation at the front of the zone with heavy precipitation, - estimating whether the determined amount of precipitation causes a minimum attenuation of the radar signal and, if so, taking the attenuation into account when determining the reflection factor. - adjusting (S110) an elevation angle (Θ el ) on the basis of an altitude (FL) of the aircraft or a range of a radar detection by the radar system that can be displayed on the display; - receiving (S120) the reflected radar signals from the zone with heavy precipitation; - changing (S130) a gain of the received radar signals on the basis of the displayable range or an estimated distance from the zone with heavy precipitation in order to avoid saturation in the radar detection; - determining a reflection factor and, based thereon, an amount of precipitation; - determining (S140) the zone with heavy precipitation based on the reflection factor for the received radar signals; and - displaying (S150) the zone with heavy precipitation on the display, - determining a front of the zone with heavy precipitation, - determining an amount of precipitation at the front of the zone with heavy precipitation, - estimating whether the determined amount of precipitation causes a minimum attenuation of the radar signal and, if so, taking the attenuation into account when determining the reflection factor.
Magnetoresistive element for sensing an external magnetic field, comprising: a tunnel barrier layer sandwiched between a ferromagnetic reference layer having a pinned reference magnetization , and a ferromagnetic sense layer having a sense magnetization that can be freely oriented in the external magnetic field ; wherein the reference, tunnel barrier, and sense layers are stacked perpendicular to a layer plane (P L ) thereof; wherein the reference magnetization is oriented substantially perpendicular to the layer plane (P L ), and the sense magnetization is oriented substantially parallel to the layer plane (P L ); characterized in that at least a portion of the magnetoresistive element has an annular cross-section in the layer plane (P L ) forming an interior part and an exterior part of said at least a portion , the interior part having an inner diameter (D int ) and the exterior part having an outer diameter (D out ); wherein said at least a portion comprises the sense layer , and wherein the sense magnetization has a closed flux path configuration being orientable either in the clockwise or counterclockwise direction; and wherein the inner diameter (D int ) being larger than 300 nm, and a difference between the inner and outer diameters (D int , D out ) is greater than 150 nm. a tunnel barrier layer sandwiched between a ferromagnetic reference layer having a pinned reference magnetization , and a ferromagnetic sense layer having a sense magnetization that can be freely oriented in the external magnetic field ; wherein the reference, tunnel barrier, and sense layers are stacked perpendicular to a layer plane (P L ) thereof; wherein the reference magnetization is oriented substantially perpendicular to the layer plane (P L ), and the sense magnetization is oriented substantially parallel to the layer plane (P L ); characterized in that at least a portion of the magnetoresistive element has an annular cross-section in the layer plane (P L ) forming an interior part and an exterior part of said at least a portion , the interior part having an inner diameter (D int ) and the exterior part having an outer diameter (D out ); wherein said at least a portion comprises the sense layer , and wherein the sense magnetization has a closed flux path configuration being orientable either in the clockwise or counterclockwise direction; and wherein the inner diameter (D int ) being larger than 300 nm, and a difference between the inner and outer diameters (D int , D out ) is greater than 150 nm.
Assembly comprising a support arm , which diverts reaction torques, and a power screwdriver , which has a drive part and a transmission housing having an output shaft which is guided forwards out of the transmission housing , wherein the output shaft is arranged coaxially within the transmission housing , wherein the transmission housing is provided with an external and circumferential spline , the teeth of which extend rearwards up to a groove surrounding the transmission housing over the circumference thereof, the groove base of said groove lying on a diameter (D1) which is smaller than the diameter (D2) described by the tips of the teeth , wherein the support arm has a fastening portion having an annular fastening flange and an internal spline, and also a support foot which is arranged laterally offset from the output shaft and which can be placed against an external abutment, wherein the spline of the fastening flange cooperates with the spline of the transmission housing such that the support arm is rotationally fixed relative to the transmission housing , wherein a locking element is arranged on the fastening flange , said locking element being able to assume a blocking or a release position, and wherein, in the blocking position, the support arm is fixed in the longitudinal direction to the transmission housing , characterized in that , in the blocking position, the locking element extends partially or entirely into the groove and thus locks the support arm in the longitudinal direction to the transmission housing .
Placental stem cells for use in a method of treating a graft versus host disease, inflammation, or formation of inflammation-related scar tissue, wherein said placental stem cells detectably suppress CD4+ or CD8+ T cell proliferation in a mixed lymphocyte reaction (MLR) assay, wherein said placental stem cells are not trophoblasts; and wherein at least 80% of said placental stem cells express CD200 and HLA-G; express CD73, C105, and CD200; express CD200 and OCT-4; or express CD73, CD105, and HLA-G. express CD200 and HLA-G; express CD73, C105, and CD200; express CD200 and OCT-4; or express CD73, CD105, and HLA-G.
An electronic display assembly comprising: an electronic display ; a front panel positioned in front of the electronic display ; a rear panel ; a housing for the electronic display ; an ingestion gap for ingesting open loop fluid positioned along a first vertical and a first horizontal portion of a perimeter of the front panel ; an exhaustion gap for exhausting open loop fluid positioned along a second vertical and a second horizontal portion of the perimeter of the front panel ; a rear gap configured to permit the flow of open loop fluid, in and out, positioned along a perimeter of the rear panel ; a channel positioned behind the electronic display ; a first gaseous pathway for open loop fluid to travel from the ingestion gap to the channel ; a second gaseous pathway for open loop fluid to travel from the channel to the exhaustion gap ; a fan positioned to cause the flow of the open loop fluid; a door cavity defined by the space immediately behind the rear panel and an interior panel , the interior panel placed between the rear panel and the electronic display , the door cavity being configured to accept open loop fluid from the rear gap and direct it towards the channel behind the electronic display ; a buffer zone positioned between the ingestion gap and the exhaustion gap ; and a central septum placed within the buffer zone in the door cavity ; wherein the central septum is configured to substantially divide the door cavity in two halves and is configured to substantially prevent the vertical flow of open fluid. an electronic display ; a front panel positioned in front of the electronic display ; a rear panel ; a housing for the electronic display ; an ingestion gap for ingesting open loop fluid positioned along a first vertical and a first horizontal portion of a perimeter of the front panel ; an exhaustion gap for exhausting open loop fluid positioned along a second vertical and a second horizontal portion of the perimeter of the front panel ; a rear gap configured to permit the flow of open loop fluid, in and out, positioned along a perimeter of the rear panel ; a channel positioned behind the electronic display ; a first gaseous pathway for open loop fluid to travel from the ingestion gap to the channel ; a second gaseous pathway for open loop fluid to travel from the channel to the exhaustion gap ; a fan positioned to cause the flow of the open loop fluid; a door cavity defined by the space immediately behind the rear panel and an interior panel , the interior panel placed between the rear panel and the electronic display , the door cavity being configured to accept open loop fluid from the rear gap and direct it towards the channel behind the electronic display ; a buffer zone positioned between the ingestion gap and the exhaustion gap ; and a central septum placed within the buffer zone in the door cavity ; wherein the central septum is configured to substantially divide the door cavity in two halves and is configured to substantially prevent the vertical flow of open fluid.
A roof tent rack for a passenger car , comprising a front cross brace and a rear cross brace , wherein both respective ends of the front cross brace and the rear cross brace have an attachment device for attaching the cross braces directly to the passenger car roof or to two roof rails securely mounted to the passenger car roof, characterized in that the roof tent rack further comprises a levelable upper structure , on which a tent is or can be mounted, two front lifting devices and two rear lifting devices , wherein the two front lifting devices and the two rear lifting devices are each arranged between the upper structure and the front cross brace or the rear cross brace for leveling the upper structure , wherein the lifting devices are each independently height adjustable, and wherein the upper structure is a tent platform, which is connected with the two front lifting devices and with the two rear lifting devices.
A capsule having an inner space , a bottom and a lid , which is arranged opposite the bottom and seals the inner space containing a beverage powder for preparing a portion of a hot brewed beverage such as coffee, tea or bouillon when steam is conducted through, characterized in that there is in the region of the bottom an inflow space which is separated from the inner space by a partition close to the bottom and remote from the lid, that the inner space has a central tube which runs vertically relative to the bottom , that a hollow cylindrical section runs around the central tube , forming a radially inner and a radially outer annular space, that the inner annular space is closed on its side close to the lid and remote from the bottom, facing away from the inflow space and facing the lid , and that both the central tube and the hollow cylindrical section end at a distance from the lid , and that the central tube is connected on its side close to the bottom to the inflow space and is closed on the side close to the lid and is provided there with radial through-openings , and the end of the hollow cylindrical section close to the bottom is arranged at a distance from the partition , leaving a connection between the inner and the outer annular space, and each annular space is separated from the inflow space .
A centrifugal separator for separating a liquid heavy phase and a liquid light phase from a liquid feed mixture, comprising a frame , a drive member and a rotating part , wherein the drive member is configured to rotate the rotating part in relation to the frame around an axis of rotation (X), and wherein the rotating part comprises a centrifuge rotor enclosing a separation space and a sludge space ; wherein the separation space comprises a stack of separation discs arranged coaxially around the axis of rotation (X) and wherein said sludge space is arranged radially outside said stack of separation discs ; wherein the centrifugal separator further comprises an inlet for receiving the liquid feed mixture into the centrifuge rotor , a first outlet for the separated liquid heavy phase, a second outlet for the separated liquid light phase, and a third set of outlets for discharging sludge and liquid heavy phase accumulated in the sludge space ; wherein the centrifugal separator further comprises a conduit system for recirculating separated liquid heavy phase discharged from the first outlet to the sludge space within the centrifuge rotor of the centrifugal separator without mixing the recirculated separated liquid heavy phase with the liquid feed mixture. a frame , a drive member and a rotating part , wherein the drive member is configured to rotate the rotating part in relation to the frame around an axis of rotation (X), and wherein the rotating part comprises a centrifuge rotor enclosing a separation space and a sludge space ; wherein the separation space comprises a stack of separation discs arranged coaxially around the axis of rotation (X) and wherein said sludge space is arranged radially outside said stack of separation discs ; wherein the centrifugal separator further comprises an inlet for receiving the liquid feed mixture into the centrifuge rotor , a first outlet for the separated liquid heavy phase, a second outlet for the separated liquid light phase, and a third set of outlets for discharging sludge and liquid heavy phase accumulated in the sludge space ; wherein the centrifugal separator further comprises a conduit system for recirculating separated liquid heavy phase discharged from the first outlet to the sludge space within the centrifuge rotor of the centrifugal separator without mixing the recirculated separated liquid heavy phase with the liquid feed mixture.
A packet processing method, comprising: receiving , by a forwarding element, a packet through an inbound port; determining , by the forwarding element, according to the inbound port, a first offset, a first length, and an identifier of a first table, wherein the first offset, the first length, and the identifier of the first table correspond to the inbound port; determining , by the forwarding element, a first key according to the first offset and the first length, determining, by the forwarding element, according to the first key, a first instruction; and processing , by the forwarding element, the packet according to the first instruction. receiving , by a forwarding element, a packet through an inbound port; determining , by the forwarding element, according to the inbound port, a first offset, a first length, and an identifier of a first table, wherein the first offset, the first length, and the identifier of the first table correspond to the inbound port; determining , by the forwarding element, a first key according to the first offset and the first length, determining, by the forwarding element, according to the first key, a first instruction; and processing , by the forwarding element, the packet according to the first instruction.