mhurhangee/ep-ind-claims huggingface dataset:
A method of managing content across applications available on an electronic device, the method comprising: receiving, in a first application, at least one query requesting at least one data item; determining at least one second application from a plurality of applications, the at least one second application comprising the requested at least one data item based on the at least one query; and displaying on a graphical user interface of the first application, a graphical element comprising indicia indicating the at least one second application and at least one interactive component to interact with the at least one data item within the graphical user interface of the first application, characterised in, that the at least one query requesting at least one data item is received as an incoming communication from a second user, and that without leaving the first application, a first user of the electronic device is provided with the at least one interactive component including one or more content populated by the at least one second application. receiving, in a first application, at least one query requesting at least one data item; determining at least one second application from a plurality of applications, the at least one second application comprising the requested at least one data item based on the at least one query; and displaying on a graphical user interface of the first application, a graphical element comprising indicia indicating the at least one second application and at least one interactive component to interact with the at least one data item within the graphical user interface of the first application, characterised in, that the at least one query requesting at least one data item is received as an incoming communication from a second user, and that without leaving the first application, a first user of the electronic device is provided with the at least one interactive component including one or more content populated by the at least one second application.
A heat pump device, comprising: a compression mechanism configured to compress refrigerant; a motor configured to drive the compression mechanism; a shell housing the compression mechanism and the motor; a discharge muffler being outside of the shell; a first pipe connecting the compression mechanism to the discharge muffler; a first heat exchanger connected to the discharge muffler, the first heat exchanger being configured to exchange heat between the refrigerant and a heat medium, and a thermal insulator (15, 17; 16, 17), the shell and the discharge muffler being spatially located next to each other without being in contact with each other, the thermal insulator (15, 17; 16, 17) being at least partially located in a space having a minimum distance between an outer surface of the shell and an outer surface of the discharge muffler, the thermal insulator (15, 17; 16, 17) including a first thermal insulating material (15; 16) configured to at least partially cover the discharge muffler and a second thermal insulating material configured to at least partially cover the shell, the first thermal insulating material (15; 16) having higher thermal resistance than the second thermal insulating material characterized by further comprising the discharge muffler having a portion coming into contact with or coming into proximity of the first heat exchanger without an intervening thermal insulating material. a compression mechanism configured to compress refrigerant; a motor configured to drive the compression mechanism; a shell housing the compression mechanism and the motor; a discharge muffler being outside of the shell; a first pipe connecting the compression mechanism to the discharge muffler; a first heat exchanger connected to the discharge muffler, the first heat exchanger being configured to exchange heat between the refrigerant and a heat medium, and a thermal insulator (15, 17; 16, 17), the shell and the discharge muffler being spatially located next to each other without being in contact with each other, the thermal insulator (15, 17; 16, 17) being at least partially located in a space having a minimum distance between an outer surface of the shell and an outer surface of the discharge muffler, the thermal insulator (15, 17; 16, 17) including a first thermal insulating material (15; 16) configured to at least partially cover the discharge muffler and a second thermal insulating material configured to at least partially cover the shell, the first thermal insulating material (15; 16) having higher thermal resistance than the second thermal insulating material characterized by further comprising the discharge muffler having a portion coming into contact with or coming into proximity of the first heat exchanger without an intervening thermal insulating material.
A method for suppressing at least one sub-carrier frequency within a channel frequency profile, the method comprising: identifying the at least one sub-carrier frequency, within the channel frequency profile, having an interference level above a first threshold; notching the at least one sub-carrier frequency in a preamble of a burst; transmitting the burst, comprising the preamble and a payload, into a wireless channel. Characterised in that the method further comprises: receiving the burst from the wireless channel; analyzing the preamble to identify the at least one notched sub-carrier frequency; inserting at least one erasure at the at least one sub-carrier frequency in the payload of the burst, and decoding the payload of the burst. identifying the at least one sub-carrier frequency, within the channel frequency profile, having an interference level above a first threshold; notching the at least one sub-carrier frequency in a preamble of a burst; transmitting the burst, comprising the preamble and a payload, into a wireless channel. Characterised in that the method further comprises: receiving the burst from the wireless channel; receiving the burst from the wireless channel; analyzing the preamble to identify the at least one notched sub-carrier frequency; inserting at least one erasure at the at least one sub-carrier frequency in the payload of the burst, inserting at least one erasure at the at least one sub-carrier frequency in the payload of the burst, and decoding the payload of the burst.
A method of processing objects using a programmable motion device, comprising: perceiving identifying indicia representative of an identity of a plurality of objects and directing the plurality of objects toward an input area from at least one input conveyance system, the input area including an input station accessible by the programmable motion device; acquiring an object from the plurality of objects at the input station using an end effector of the programmable motion device; and moving the acquired object from the input station toward an identified processing location using the programmable motion device, said identified processing location being associated with the identifying indicia and characterized by: said identified processing location being provided as one of a plurality of stationary processing locations that are radially spaced from a base of the programmable motion device, wherein the plurality of stationary processing locations include a plurality of processing bins within reach of the end effector of the programmable motion device in a plurality of semicircular rows that increase in elevation and radial distance away from the base of the programmable motion device. perceiving identifying indicia representative of an identity of a plurality of objects and directing the plurality of objects toward an input area from at least one input conveyance system, the input area including an input station accessible by the programmable motion device; acquiring an object from the plurality of objects at the input station using an end effector of the programmable motion device; and moving the acquired object from the input station toward an identified processing location using the programmable motion device, said identified processing location being associated with the identifying indicia and characterized by: said identified processing location being provided as one of a plurality of stationary processing locations that are radially spaced from a base of the programmable motion device, wherein the plurality of stationary processing locations include a plurality of processing bins within reach of the end effector of the programmable motion device in a plurality of semicircular rows that increase in elevation and radial distance away from the base of the programmable motion device.
A pole part of a circuit-breaker arrangement comprising an insulation housing for accommodating a vacuum interrupter containing a pair of corresponding electrical switching contacts (4, 7), wherein a fixed upper electrical contact is connected to an upper electrical terminal molded or assembled in the insulation housing and a movable lower electrical contact is connected to a electrical contact element of the insulation housing via a flexible conductor comprising a first end for attaching the flexible conductor to the insulation housing and a second end for attaching the flexible conductor to the movable lower electrical contact, wherein the second end of the flexible conductor is provided with an inside thread which is screwed to an outside thread arranged on the distal end of the movable lower electrical contact, characterized in that a screw-nut for securing the flexible conductor on the movable lower electrical contact is additionally screwed on the outside thread of the movable lower electrical contact.
A DKK-1 antibody or antigen-binding fragment thereof, comprising a light chain variable region (LCVR) and a heavy chain variable region (HCVR), wherein the LCVR comprises the amino acid sequence of SEQ ID NO: 36 and the HCVR comprises the amino acid sequence of SEQ ID NO: 37.
An aerosol-generating device comprising: an inductive heating arrangement configured to heat an aerosol-forming substrate, the inductive heating arrangement comprising: a susceptor arrangement that is heatable by penetration with a varying magnetic field to heat the aerosol-forming substrate, at least a first inductor coil, and at least a second inductor coil, wherein the second inductor coil has a different number of turns to the first inductor coil, and a controller, wherein the controller is configured to drive the first inductor coil with a first alternating pulse width modulated signal for generating a first alternating magnetic field for heating a first portion of the susceptor arrangement, wherein the controller is configured to drive the second inductor coil with a second alternating pulse width modulated signal for generating a second alternating magnetic field for heating a second portion of the susceptor arrangement, and wherein the controller is configured to supply the first alternating pulse width modulated signal and the second alternating pulse width modulated signal with complementary duty cycles. an inductive heating arrangement configured to heat an aerosol-forming substrate, the inductive heating arrangement comprising: a susceptor arrangement that is heatable by penetration with a varying magnetic field to heat the aerosol-forming substrate, at least a first inductor coil, and at least a second inductor coil, wherein the second inductor coil has a different number of turns to the first inductor coil, and a susceptor arrangement that is heatable by penetration with a varying magnetic field to heat the aerosol-forming substrate, at least a first inductor coil, and at least a second inductor coil, wherein the second inductor coil has a different number of turns to the first inductor coil, and a controller, wherein the controller is configured to drive the second inductor coil with a second alternating pulse width modulated signal for generating a second alternating magnetic field for heating a second portion of the susceptor arrangement, and wherein the controller is configured to supply the first alternating pulse width modulated signal and the second alternating pulse width modulated signal with complementary duty cycles.
A stent delivery system, comprising: an inner member having a proximal end, a distal end, and a stent receiving region; a stent disposed along the stent receiving region; an intermediate tube disposed over the inner member, the intermediate tube extending from a position adjacent to the proximal end of the inner member to a position proximal of the distal end of the inner member; wherein the intermediate tube includes a bumper; wherein the bumper is designed to prevent unwanted proximal movement of the stent during navigation and deployment of the stent; a clip member placed near the inner member and the intermediate tube, wherein the clip member aids in maintaining the relative position of one or more structures of the system so as to accurately deploy the stent; a deployment sheath disposed over the intermediate tube; and an outer member disposed about the deployment sheath. an inner member having a proximal end, a distal end, and a stent receiving region; a stent disposed along the stent receiving region; an intermediate tube disposed over the inner member, the intermediate tube extending from a position adjacent to the proximal end of the inner member to a position proximal of the distal end of the inner member; wherein the intermediate tube includes a bumper; wherein the bumper is designed to prevent unwanted proximal movement of the stent during navigation and deployment of the stent; a clip member placed near the inner member and the intermediate tube, wherein the clip member aids in maintaining the relative position of one or more structures of the system so as to accurately deploy the stent; a deployment sheath disposed over the intermediate tube; and an outer member disposed about the deployment sheath.
A stent comprising a side chain crystallizable polymer, wherein the side chain crystallizable polymer comprises a plurality of heavy atoms having an atomic number of 17 or greater attached by covalent or ionic bonds in an amount that is effective to render the polymer inherently radiopaque, wherein the stent is selected from the group consisting of a sheet stent, a braided stent, a self-expanding stent, a wire stent, a deformable stent, and a slide-and-lock stent, and wherein the side chain crystallizable polymer comprises a recurring unit selected from the group consisting of: wherein R 7, R 8 and R 12 are each independently H or CH 3; A 3 is a chemical group having a molecular weight of 500 or less; and A 3 bears at least one of the heavy atoms attached to the polymer; L 3 is an ester or amide linkage; R 9 and R 10 are each independently a C 6 to C 34 hydrocarbon group; R 11 and A 4 are each independently H or a chemical group containing from 1 to 30 carbons; and n4 is an integer in the range of 1 to 1,000. R 7, R 8 and R 12 are each independently H or CH 3; A 3 is a chemical group having a molecular weight of 500 or less; and A 3 bears at least one of the heavy atoms attached to the polymer; L 3 is an ester or amide linkage; R 9 and R 10 are each independently a C 6 to C 34 hydrocarbon group; R 11 and A 4 are each independently H or a chemical group containing from 1 to 30 carbons; and n4 is an integer in the range of 1 to 1,000.
A method of resetting a number of functional components (102, 104, 106, 108) in a computing device, the method comprising: determining a number of cycles required to reset the functional components (102, 104, 106, 108) based on a target voltage for the reset; controlling a reset synchronizer (300, 400, 500) to run for the determined number of cycles; wherein the reset synchronizer (300, 400, 500) controls a reset network connected to the functional components (102, 104, 106, 108); and wherein the determined number of cycles at a first voltage is different than a determined number of cycles at a second voltage. determining a number of cycles required to reset the functional components (102, 104, 106, 108) based on a target voltage for the reset; controlling a reset synchronizer (300, 400, 500) to run for the determined number of cycles; wherein the reset synchronizer (300, 400, 500) controls a reset network connected to the functional components (102, 104, 106, 108); and wherein the determined number of cycles at a first voltage is different than a determined number of cycles at a second voltage.
A liner hanger running tool to position a liner within a casing in a wellbore, comprising: a tool mandrel having a throughbore and supported on a running string; a piston mandrel surrounding the tool mandrel; the liner circumferentially surrounding at least a portion of the tool mandrel; characterised by a flow annulus between an outer surface of the tool mandrel and an inner surface of the piston mandrel defining a flow path for fluid entering the annulus and passing upwards through the running tool to a position above the liner and in fluid communication with an annulus exterior of the running tool and interior of the casing; and a hydraulic release mechanism (78, 79) activated by fluid pressure within the tool mandrel to axially move a piston positioned radially outward of the piston mandrel to release the running tool from the liner. a tool mandrel having a throughbore and supported on a running string; a piston mandrel surrounding the tool mandrel; the liner circumferentially surrounding at least a portion of the tool mandrel; characterised by a flow annulus between an outer surface of the tool mandrel and an inner surface of the piston mandrel defining a flow path for fluid entering the annulus and passing upwards through the running tool to a position above the liner and in fluid communication with an annulus exterior of the running tool and interior of the casing; and a hydraulic release mechanism (78, 79) activated by fluid pressure within the tool mandrel to axially move a piston positioned radially outward of the piston mandrel to release the running tool from the liner.
A plurality of shaped opaque covert flakes comprising a first plurality of flakes, wherein each of the plurality of shaped opaque covert inorganic flakes has a selected shape and a thickness less than 10 microns, and wherein the first plurality of the shaped opaque covert flakes have a same selected shape and have a symbol or logo, but not including a symbol or logo being magnetic stripes.
A method for determining the amount of 25-hydroxyvitamin D 3 or 25-hydroxyvitamin D 2 in a plasma or serum sample by mass spectrometry, comprising: (a) purifying the sample by chromatography; (b) generating a precursor ion of 25-hydroxyvitamin D 3 or 25-hydroxyvitamin D 2 having a mass to charge ratio (m/z) of 383.16±0.5 or 395.30±0.5, respectively, wherein said ions are generated with atmospheric pressure chemical ionization (APCI); (c) generating one or more fragment ions of said precursor ion; and (d) detecting the amount of one or more of said ions generated in step (a) or (b) or both and relating the detected ions to the amount of said 25-hydroxyvitamin D 3 or 25-hydroxyvitamin D 2 in said sample. (a) purifying the sample by chromatography; (b) generating a precursor ion of 25-hydroxyvitamin D 3 or 25-hydroxyvitamin D 2 having a mass to charge ratio (m/z) of 383.16±0.5 or 395.30±0.5, respectively, wherein said ions are generated with atmospheric pressure chemical ionization (APCI); (c) generating one or more fragment ions of said precursor ion; and (d) detecting the amount of one or more of said ions generated in step (a) or (b) or both and relating the detected ions to the amount of said 25-hydroxyvitamin D 3 or 25-hydroxyvitamin D 2 in said sample.
An RF front-end adapted to receive signals located in at least two separated frequency bands and comprising: - an input; - an output; - a first amplifier circuit; - a second amplifier circuit; - a first phase shifter coupled to the input of the RF front-end and the input of the first and second amplifiers; and - a second phase shifter coupled to the output of the RF front-end and the output of the first and second amplifiers; - the first phase shifter being coupled to the second phase shifter via the first amplifier circuit and the second amplifier; wherein the first phase shifter and the second phase shifter each provides at its respective output an odd multiple of 180° phase shift of a signal situated in a first frequency band applied to its respective input, and an even multiple of 180° phase shift of a signal situated in a second frequency band applied to its respective input. - an input; - an output; - a first amplifier circuit; - a second amplifier circuit; - a first phase shifter coupled to the input of the RF front-end and the input of the first and second amplifiers; and - a second phase shifter coupled to the output of the RF front-end and the output of the first and second amplifiers; - the first phase shifter being coupled to the second phase shifter via the first amplifier circuit and the second amplifier;
A honeycomb structure having a crystal phase composed of aluminum titanate and mullite, which is obtained by sintering a honeycomb molding made of a mixture comprising titania powder, alumina powder, silica powder and mullite powder, said mixture containing 1-10 parts by mass of silica powder and 5-30 parts by mass of mullite powder per the total amount (100 parts by mass) of said titania powder and said alumina powder, said mullite powder containing 40-60% by mass of particles having particle sizes of 10-50 μm and 5-30% by mass of particles having particle sizes of 3 μm or less, said alumina powder having an average particle size of 0.2-50 μm, said titania powder having an average particle size of 0.1-10 μm, and said sintering being conducted at 1300°C-1700°C.
A viscosity measuring method comprising: (i) a step of acquiring an image of a droplet in a static state without vibration; (ii) a step of using a vibrator to vibrate the droplet, and acquiring an image of the droplet in a dynamic state in which the droplet is maximally extended in a horizontal direction or maximally extended in a vertical direction; (iii) a step of obtaining the static curvature change rate (∂κ/∂z)s of the droplet interface and the dynamic curvature change rate (∂κ/∂z)d of the droplet interface from the images acquired in step (i) and (ii); and (iv) a step of substituting the ratio of the static curvature change rate (∂κ/∂ z)s of the droplet interface to the dynamic curvature change rate (∂κ/∂z)d of the droplet interface obtained by the following equation, into an interaction equation, adjusted for the vibrator, obtained by the following equation, to obtain the viscosity (μ) of the droplet. σ d σ = − Δρ ⁢ g σ 1 ∂ κ/ ∂ z d = ∂ κ/ ∂ z s ∂ κ/ ∂ z d μ= ⁢ f ∂ κ / ∂ z s ∂ κ / ∂ z d wherein σd/σ is the ratio of the dynamic curvature tension to the actual surface tension in static state and wherein Δρ is the density contrast between the droplet and the open air. (i) a step of acquiring an image of a droplet in a static state without vibration; (ii) a step of using a vibrator to vibrate the droplet, and acquiring an image of the droplet in a dynamic state in which the droplet is maximally extended in a horizontal direction or maximally extended in a vertical direction; (iii) a step of obtaining the static curvature change rate (∂κ/∂z)s of the droplet interface and the dynamic curvature change rate (∂κ/∂z)d of the droplet interface from the images acquired in step (i) and (ii); and (iv) a step of substituting the ratio of the static curvature change rate (∂κ/∂ z)s of the droplet interface to the dynamic curvature change rate (∂κ/∂z)d of the droplet interface obtained by the following equation, into an interaction equation, adjusted for the vibrator, obtained by the following equation, to obtain the viscosity (μ) of the droplet. σ d σ = − Δρ ⁢ g σ 1 ∂ κ/ ∂ z d = ∂ κ/ ∂ z s ∂ κ/ ∂ z d μ= ⁢ f ∂ κ / ∂ z s ∂ κ / ∂ z d