mhurhangee/ep-ind-claims huggingface dataset:
A patient transfer system comprising: a non-inflatable, self-supporting, and non-collapsible platform that exhibits a uni-dimensional change in size or a three-dimensional change in size of no greater than 200%, in response to an increase in internal pressure in use, compared to the nonpressurized state, the platform comprising: a first surface, a second surface positioned substantially parallel to the first surface and separated from the first surface by a distance, a plurality of discrete, spaced apart supporting structures, each supporting structure extending at least partially across the distance between the first surface and the second surface, a plenum defined at least partially by the first surface, the second surface, and the plurality of supporting structures, and a plurality of apertures formed through at least a portion of at least one of the first surface and the second surface and in fluid communication with the plenum, the plurality of apertures positioned to create a fluid pallet for patient transfer; and a fluid source fluidly coupled to the plenum, the fluid source being a positive pressure fluid source configured to move fluid from the fluid source into the plenum and out the plurality of apertures to form the fluid pallet. a non-inflatable, self-supporting, and non-collapsible platform that exhibits a uni-dimensional change in size or a three-dimensional change in size of no greater than 200%, in response to an increase in internal pressure in use, compared to the nonpressurized state, the platform comprising: a first surface, a second surface positioned substantially parallel to the first surface and separated from the first surface by a distance, a plurality of discrete, spaced apart supporting structures, each supporting structure extending at least partially across the distance between the first surface and the second surface, a plenum defined at least partially by the first surface, the second surface, and the plurality of supporting structures, and a plurality of apertures formed through at least a portion of at least one of the first surface and the second surface and in fluid communication with the plenum, the plurality of apertures positioned to create a fluid pallet for patient transfer; and a first surface, a second surface positioned substantially parallel to the first surface and separated from the first surface by a distance, a plurality of discrete, spaced apart supporting structures, each supporting structure extending at least partially across the distance between the first surface and the second surface, a plenum defined at least partially by the first surface, the second surface, and the plurality of supporting structures, and a plurality of apertures formed through at least a portion of at least one of the first surface and the second surface and in fluid communication with the plenum, the plurality of apertures positioned to create a fluid pallet for patient transfer; and a fluid source fluidly coupled to the plenum, the fluid source being a positive pressure fluid source configured to move fluid from the fluid source into the plenum and out the plurality of apertures to form the fluid pallet.
A cosmetic treatment method for locally reducing adipose tissue at a local region of an abdominal area, a buttock area, an extremity, an arm, a leg, a waist, or a flank of a non-infant subject's body, comprising: (a) applying a cooling means of a device at a defined area of the subject's skin in a local region where subcutaneous adipose tissue reduction is desired; (b) controlling the cooling means whereby the cooling means is maintained at an average temperature between about -15°C and +10°C for up to two hours in a manner that selectively disrupts lipid rich cells in the local region, and, simultaneously therewith maintains the subject's skin at a temperature whereby non lipid rich cells proximate to the cooling means and non-lipid rich cells surrounding the subcutaneous fatty tissue are not disrupted, and (c) modifying a shape of the local region to contour a surface of the local region. (a) applying a cooling means of a device at a defined area of the subject's skin in a local region where subcutaneous adipose tissue reduction is desired; (b) controlling the cooling means whereby the cooling means is maintained at an average temperature between about -15°C and +10°C for up to two hours in a manner that selectively disrupts lipid rich cells in the local region, and, simultaneously therewith maintains the subject's skin at a temperature whereby non lipid rich cells proximate to the cooling means and non-lipid rich cells surrounding the subcutaneous fatty tissue are not disrupted, and (c) modifying a shape of the local region to contour a surface of the local region.
An apparatus for redundant measurements of a magnetic field originating from or influenced by an object, the apparatus comprising: at least one first Hall sensing element measuring at least one magnetic field property of the magnetic field, wherein the at least one first Hall sensing element is implemented on a first area of a semiconductor substrate and wherein the at least one measured magnetic field property comprises a strength of the magnetic field along a particular spatial direction; at least one second Hall sensing element measuring the same magnetic field property of the magnetic field, wherein the at least one second Hall sensing element is implemented on a second area of said semiconductor substrate; and wherein the first and second areas (140, 150) are adjacent to one another and isolated from one another by silicon-on-insulator technology. at least one first Hall sensing element measuring at least one magnetic field property of the magnetic field, wherein the at least one first Hall sensing element is implemented on a first area of a semiconductor substrate and wherein the at least one measured magnetic field property comprises a strength of the magnetic field along a particular spatial direction; at least one second Hall sensing element measuring the same magnetic field property of the magnetic field, wherein the at least one second Hall sensing element is implemented on a second area of said semiconductor substrate; and wherein the first and second areas (140, 150) are adjacent to one another and isolated from one another by silicon-on-insulator technology.
An agent for use in the prevention or treatment of obesity, comprising one or more compounds of Formula: Formula: Formula: Formula: Formula: Formula: Formula: Formula: or Formula: Formula: Formula: Formula: Formula: Formula: Formula: Formula: Formula: or Formula:
A safety device for a child seat in a vehicle, having a seating surface and backrest, which comprises at least one catch element and two connecting parts, the catch element being mounted in an adjustable manner approximately diagonally above the thigh of a child sitting in the child seat, extending in the direction approximately parallel to the seating surface, characterized in that the adjustment device of the catch element extends at an angle (α) > 0, rising from the rear forwards, particularly at an angle (α) of approximately 5° to 20° relatively to the seat surface, wherein the catch element is adjustable in an infinitely variable or alternatively step-by-step manner, wherein the relative position of the catch element can be fixed in a non-positive and/or positive manner, wherein the catch element can be locked on the child seat in at least two different positions relatively to the seating surface and backrest on connecting parts connected to armrests.
A method of determining an optimal authentication scheme by at least one processor, the method comprising: receiving, from an authenticating system an identity of a user requiring access to the authenticating system and a policy of the authenticating system; receiving, from a storage device, data comprising historical information regarding previous authentication attempts by the user; producing a list comprising an optimal selection of one or more authentication schemes, each comprising one or more authentication factors, according to the historical information and the authenticating system policy; and sending the selection list of one or more authentication schemes to the authenticating system, characterized by producing said list using a machine learning model that is obtained by: receiving data relating to personal profile information of a plurality of users; grouping the plurality of users to clusters in a clustering model according to the received personal profile information, wherein each cluster is characterized by specific cluster parameter values; producing a plurality of authentication schemes S, wherein each authentication scheme "S i " is a unique combination of available authentication factors; producing a likelihood matrix Y, wherein each entry Y i,j represents a likelihood that a user of cluster j would prefer authentication scheme S i and that the user would succeed on a first authentication attempt; and training the machine learning model to predict Y i,j given specific cluster j parameters. receiving, from an authenticating system an identity of a user requiring access to the authenticating system and a policy of the authenticating system; receiving, from a storage device, data comprising historical information regarding previous authentication attempts by the user; producing a list comprising an optimal selection of one or more authentication schemes, each comprising one or more authentication factors, according to the historical information and the authenticating system policy; and sending the selection list of one or more authentication schemes to the authenticating system, characterized by producing said list using a machine learning model that is obtained by: receiving data relating to personal profile information of a plurality of users; grouping the plurality of users to clusters in a clustering model according to the received personal profile information, wherein each cluster is characterized by specific cluster parameter values; producing a plurality of authentication schemes S, wherein each authentication scheme "S i " is a unique combination of available authentication factors; producing a likelihood matrix Y, wherein each entry Y i,j represents a likelihood that a user of cluster j would prefer authentication scheme S i and that the user would succeed on a first authentication attempt; and training the machine learning model to predict Y i,j given specific cluster j parameters.
A method for producing gamma aluminium oxide - γ-Al 2 O 3 using plasma-activated aluminium and water reactions, said method comprising: - modifying aluminium powder in glow discharge plasma in the presence of 3-10 Pa of hydrogen and residual gases for 10-60 min at plasma temperature of 60-90 °C; - immersing activated aluminium in the water received after osmosis purification process which temperature is greater than 40 °C and producing hydrogen gas and mixture of pseudo-Boehmite - AlO and Bayerite - Al 3 powder during the Al-water reaction; - drying and annealing obtained mixture of pseudo-Boehmite - AlO and Bayerite - Al 3 at 280 °C up to 5 hours under atmospheric conditions using an oven, yielding pure pseudo-Boehmite - AlO; - annealing pseudo-Boehmite - AlO at 500 °C up to 5 hours under atmospheric conditions using an oven, yielding pure γ-Al 2 O 3 with the BET surface area >200 m 2 /g, crystallite size - 3-10 nm, level of remaining impurities - Na 2 O <100 ppm, SO 4 < 100 ppm and Fe 2 O 3 < 100 ppm. - modifying aluminium powder in glow discharge plasma in the presence of 3-10 Pa of hydrogen and residual gases for 10-60 min at plasma temperature of 60-90 °C; - immersing activated aluminium in the water received after osmosis purification process which temperature is greater than 40 °C and producing hydrogen gas and mixture of pseudo-Boehmite - AlO and Bayerite - Al 3 powder during the Al-water reaction; - drying and annealing obtained mixture of pseudo-Boehmite - AlO and Bayerite - Al 3 at 280 °C up to 5 hours under atmospheric conditions using an oven, yielding pure pseudo-Boehmite - AlO; - annealing pseudo-Boehmite - AlO at 500 °C up to 5 hours under atmospheric conditions using an oven, yielding pure γ-Al 2 O 3 with the BET surface area >200 m 2 /g, crystallite size - 3-10 nm, level of remaining impurities - Na 2 O <100 ppm, SO 4 < 100 ppm and Fe 2 O 3 < 100 ppm.
Sonotrode unit comprising - a sonotrode that can vibrate in a vibration direction, - a converter in the form of a vibration generator, to the free end of which the sonotrode is fastened either indirectly by means of a drive booster arranged therebetween or directly, - a sonotrode support, to which the sonotrode is fastened by means of a plurality of supporting boosters that extend in the axial direction and in the vibration direction, by - pressing together two bearing surfaces (7a, b) on the supporting booster on the one hand and on the sonotrode support on the other hand, said bearing surfaces being located perpendicularly to the vibration direction in a transverse plane, - the axial position of the pressed-together bearing surfaces (7a, b) being selected such that, when the supporting booster is vibrating during operation, said axial position is positioned at the axial position of a vibration node, i.e. of the zero crossing of the standing wave forming in the supporting booster, characterised in that each pair of bearing surfaces (7a, b) is pressed together by means of a screw connection and two contact surfaces (6a, b) are present, which can be pressed together by means of the screw connection, are located perpendicularly to the vibration direction in a transverse plane and of which - one is formed on a screw or nut of the screw connection and - the other is formed on the sonotrode support or the supporting booster. - a sonotrode that can vibrate in a vibration direction, - a converter in the form of a vibration generator, to the free end of which the sonotrode is fastened either indirectly by means of a drive booster arranged therebetween or directly, - a sonotrode support, to which the sonotrode is fastened by means of a plurality of supporting boosters that extend in the axial direction and in the vibration direction, by - pressing together two bearing surfaces (7a, b) on the supporting booster on the one hand and on the sonotrode support on the other hand, said bearing surfaces being located perpendicularly to the vibration direction in a transverse plane, - the axial position of the pressed-together bearing surfaces (7a, b) being selected such that, when the supporting booster is vibrating during operation, said axial position is positioned at the axial position of a vibration node, i.e. of the zero crossing of the standing wave forming in the supporting booster, each pair of bearing surfaces (7a, b) is pressed together by means of a screw connection and two contact surfaces (6a, b) are present, which can be pressed together by means of the screw connection, are located perpendicularly to the vibration direction in a transverse plane and of which - one is formed on a screw or nut of the screw connection and - the other is formed on the sonotrode support or the supporting booster. - one is formed on a screw or nut of the screw connection and - the other is formed on the sonotrode support or the supporting booster.
Propulsion system of an aircraft, comprising: - a system for producing electricity comprising a set of fuel cells; - at least one electric motor supplied with electricity by at least some of the fuel cells; - a propeller mechanically coupled to the at least one electric motor; and - a nacelle housing at least the system for producing electricity and the at least one electric motor, said nacelle comprising an air circulation channel provided to allow the system for producing electricity to be cooled, wherein: - the air circulation channel extends inside the nacelle from a first end of said air circulation channel that is situated at a first longitudinal end of the nacelle; - the air circulation channel receives a heat exchanger provided to allow the system for producing electricity to be cooled; and - the propeller is situated near the first longitudinal end of the nacelle, characterized in that at least a part of the air circulation channel that is contiguous with the first end of the air circulation channel is delimited by an outer surface of cylindrical shape that surrounds the longitudinal axis of the nacelle, the outer surface being situated inside the nacelle. - a system for producing electricity comprising a set of fuel cells; - at least one electric motor supplied with electricity by at least some of the fuel cells; - a propeller mechanically coupled to the at least one electric motor; and - a nacelle housing at least the system for producing electricity and the at least one electric motor, said nacelle comprising an air circulation channel provided to allow the system for producing electricity to be cooled, - the air circulation channel extends inside the nacelle from a first end of said air circulation channel that is situated at a first longitudinal end of the nacelle; - the air circulation channel receives a heat exchanger provided to allow the system for producing electricity to be cooled; and - the propeller is situated near the first longitudinal end of the nacelle,
A method of two-stage combustion integrating in situ oxygen generation, the method characterized by the steps of: oxidizing, using an air reactor, a reduced oxygen carrier stream to form an oxidized oxygen carrier stream; separating, in a primary separator, an oxygen carrier and oxygen-depleted air from the oxidized oxygen carrier stream; dividing the oxidized oxygen carrier stream into a first stream fed to a primary fuel reactor and a second stream fed to an oxygen generation system; producing, in the oxygen generation system, gaseous oxygen; combusting, using the primary fuel reactor, fuel in the presence of the oxygen carrier; combusting, using a secondary fuel reactor, at least one of an additional fuel supply and an unburned fuel exiting the primary fuel reactor in the presence of the gaseous oxygen; wherein combusting fuel in the presence of the oxygen carrier forms the reduced oxygen carrier stream, which is conveyed to the air reactor for recycling. oxidizing, using an air reactor, a reduced oxygen carrier stream to form an oxidized oxygen carrier stream; separating, in a primary separator, an oxygen carrier and oxygen-depleted air from the oxidized oxygen carrier stream; dividing the oxidized oxygen carrier stream into a first stream fed to a primary fuel reactor and a second stream fed to an oxygen generation system; producing, in the oxygen generation system, gaseous oxygen; combusting, using the primary fuel reactor, fuel in the presence of the oxygen carrier; combusting, using a secondary fuel reactor, at least one of an additional fuel supply and an unburned fuel exiting the primary fuel reactor in the presence of the gaseous oxygen; wherein combusting fuel in the presence of the oxygen carrier forms the reduced oxygen carrier stream, which is conveyed to the air reactor for recycling.
An isolated antibody or antigen-binding fragment thereof that specifically binds dimeric human platelet derived growth factor receptor beta (PDGFR-beta) with a binding dissociation equilibrium constant (K D) of less than 200 pM as measured in a surface plasmon resonance assay at 37°C, wherein: the antibody or antigen-binding fragment thereof blocks binding of at least one PDGF ligand to PDGFR-beta; the antibody or antigen-binding fragment thereof blocks PDGF-BB ligand binding to soluble monomeric PDGFR-beta with an IC 50 value of less than 150 pM as measured in an in vitro receptor/ligand binding assay at 25°C; and the antibody or antigen-binding fragment thereof inhibits PDGF ligand-mediated activation of PDGFR-beta signaling in cells that express PDGFR-beta; wherein the antibody or antigen-binding fragment thereof comprises: three heavy chain complementarity determining regions (HCDR1, HCDR2 and HCDR3) comprising SEQ ID NOS: 132, 134 and 136, respectively; and three light chain complementarity determining regions (LCDR1, LCDR2 and LCDR3) comprising SEQ ID NOS: 140, 142 and 144, respectively. the antibody or antigen-binding fragment thereof blocks binding of at least one PDGF ligand to PDGFR-beta; the antibody or antigen-binding fragment thereof blocks PDGF-BB ligand binding to soluble monomeric PDGFR-beta with an IC 50 value of less than 150 pM as measured in an in vitro receptor/ligand binding assay at 25°C; and the antibody or antigen-binding fragment thereof inhibits PDGF ligand-mediated activation of PDGFR-beta signaling in cells that express PDGFR-beta; wherein the antibody or antigen-binding fragment thereof comprises: three heavy chain complementarity determining regions (HCDR1, HCDR2 and HCDR3) comprising SEQ ID NOS: 132, 134 and 136, respectively; and three light chain complementarity determining regions (LCDR1, LCDR2 and LCDR3) comprising SEQ ID NOS: 140, 142 and 144, respectively. three heavy chain complementarity determining regions (HCDR1, HCDR2 and HCDR3) comprising SEQ ID NOS: 132, 134 and 136, respectively; and three light chain complementarity determining regions (LCDR1, LCDR2 and LCDR3) comprising SEQ ID NOS: 140, 142 and 144, respectively.
A base station for communicating with a wireless terminal, UE, said base station, B, comprising transmission means for transmitting information that indicates data volume of downlink data to a second base station if said wireless terminal, UE, performs a handover from said base station to said second base station, wherein said downlink data is data transmitted from said base station, B, to said wireless terminal, UE, characterized in that said data volume of downlink data is unsuccessfully transmitted downlink data volume.
An image display apparatus configured to be installed in a vehicle, the image display apparatus comprising: a communication unit; a display unit; an audio output unit; a controller operatively connected to the communication unit, the display unit and the audio output unit, the controller configured to receive an image from a mobile terminal via the communication unit, display the image on the display unit, characterised in that the controller is further configured to acquire text corresponding to the displayed image, acquire a vehicle speed, convert the acquired text into an audio signal when the acquired vehicle speed exceeds a threshold speed, and output the audio signal via the audio output unit. a communication unit; a display unit; an audio output unit; a controller operatively connected to the communication unit, the display unit and the audio output unit, the controller configured to receive an image from a mobile terminal via the communication unit, display the image on the display unit, characterised in that the controller is further configured to acquire text corresponding to the displayed image, acquire a vehicle speed, convert the acquired text into an audio signal when the acquired vehicle speed exceeds a threshold speed, and output the audio signal via the audio output unit.