mhurhangee/ep-ind-claims huggingface dataset:
A method for receiving multimedia content using a mobile device, the mobile device comprising a screen and a backlight for illuminating the screen of the mobile device, the method comprising: sending a first HTTP GET request for a first Dynamic Adaptive Streaming over HTTP, DASH, segment of the multimedia content from a network, the first DASH segment being processed at a first rate; receiving the first DASH segment of the multimedia content from the network; starting playback of the first DASH segment of the multimedia content; receiving a first input from a dedicated proximity sensor of the mobile device, the dedicated proximity sensor being configured to turn off the backlight of the screen; and stopping the playback of the multimedia content based on the first input from the dedicated proximity sensor. sending a first HTTP GET request for a first Dynamic Adaptive Streaming over HTTP, DASH, segment of the multimedia content from a network, the first DASH segment being processed at a first rate; receiving the first DASH segment of the multimedia content from the network; starting playback of the first DASH segment of the multimedia content; receiving a first input from a dedicated proximity sensor of the mobile device, the dedicated proximity sensor being configured to turn off the backlight of the screen; and stopping the playback of the multimedia content based on the first input from the dedicated proximity sensor.
An active viral-safe platelet extract derived from multiple donors comprising a mixture of biologically active platelet cell growth factors and/or trophic factors for use in therapy, the platelet extract comprising PDGF-AB, b-FGF, VEGF and TGFb1, wherein the ratio for PDGF-AB: VEGF is at least 74 and the ratio for PDGF-AB: TGFb1 is at least 0.56, wherein the extract is rendered viral-safe by two orthogonal viral inactivation steps, and wherein the viral inactivation steps comprise solvent detergent (S/D) viral inactivation treatment and pasteurisation.
An air conditioner, comprising: a plurality of indoor units configured to perform air conditioning; and one or more outdoor units connected to the plurality of indoor units to drive the indoor units, wherein each of the one or more outdoor units comprises a control unit having a controller configured to determine a reception error of an upgrade data to drive the indoor units using an outdoor unit program from a central control server and a storage unit configured to store the outdoor unit program and the upgrade data for the outdoor unit program, wherein the controller is configured to determine an error occurred while receiving the upgrade data for the outdoor unit program for driving the indoor units and the outdoor unit, and is configured to request retransmission of the upgrade data when the error has occurred, characterized in that the central control server is configured to transmit upgrade data to all of the one or more outdoor units or to selectively specified outdoor units at the same time, and in that the controller is configured to perform an upgrade when the upgrade data is collectively transmitted to all of the one or more outdoor units without specifying the address, and to perform an upgrade if an address is identical thereto when the upgrade data is transmitted subsequent to specifying the address. a plurality of indoor units configured to perform air conditioning; and one or more outdoor units connected to the plurality of indoor units to drive the indoor units, wherein each of the one or more outdoor units comprises a control unit having a controller configured to determine a reception error of an upgrade data to drive the indoor units using an outdoor unit program from a central control server and a storage unit configured to store the outdoor unit program and the upgrade data for the outdoor unit program, wherein the controller is configured to determine an error occurred while receiving the upgrade data for the outdoor unit program for driving the indoor units and the outdoor unit, and is configured to request retransmission of the upgrade data when the error has occurred, the central control server is configured to transmit upgrade data to all of the one or more outdoor units or to selectively specified outdoor units at the same time, and in that the controller is configured to perform an upgrade when the upgrade data is collectively transmitted to all of the one or more outdoor units without specifying the address, and to perform an upgrade if an address is identical thereto when the upgrade data is transmitted subsequent to specifying the address.
A gas turbine engine comprising: a compressor section having a plurality of compressor stages, a combustor disposed within a combustor section, wherein the combustor section is fluidly connected to the compressor section, a turbine section fluidly connected to the combustor, said turbine section having at least one stage, a cooling air exit disposed on a wall of said combustor section, a first fluid pathway connecting said cooling air exit to an input of a heat exchanger, a second fluid pathway connecting a first output of said heat exchanger to a turbine injection system, an opening (136;212) fluidly connecting said turbine injection system to said combustor section, a mixing plenum (152;214) downstream of said opening (136;212), and said mixing plenum (152;214) being disposed between an output of said turbine injection system and said turbine section; and a controller controllably coupled to said heat exchanger and operable to control cooling operations of said heat exchanger; wherein the heat exchanger further comprises a second output, and wherein said second output is fluidly connected to at least one other engine component, thereby providing cooling air to the at least one other engine component; and characterized in that the gas turbine further comprises at least one of a valve disposed in said cooling air exit and a valve disposed in said opening (136;212). a compressor section having a plurality of compressor stages, a combustor disposed within a combustor section, wherein the combustor section is fluidly connected to the compressor section, a turbine section fluidly connected to the combustor, said turbine section having at least one stage, a cooling air exit disposed on a wall of said combustor section, a first fluid pathway connecting said cooling air exit to an input of a heat exchanger, a second fluid pathway connecting a first output of said heat exchanger to a turbine injection system, an opening (136;212) fluidly connecting said turbine injection system to said combustor section, a mixing plenum (152;214) downstream of said opening (136;212), and said mixing plenum (152;214) being disposed between an output of said turbine injection system and said turbine section; and a controller controllably coupled to said heat exchanger and operable to control cooling operations of said heat exchanger; wherein the heat exchanger further comprises a second output, and wherein said second output is fluidly connected to at least one other engine component, thereby providing cooling air to the at least one other engine component; and characterized in that the gas turbine further comprises at least one of a valve disposed in said cooling air exit and a valve disposed in said opening (136;212).
Explosion-proof and bullet-proof wall construction, comprising: - a first barrier and a second barrier, which are positioned at a distance from one another, - a plurality of barrier connections between the first and second barrier in the form of vertical frames, wherein the vertical frames are placed at a regular distance from one another, wherein each vertical frame comprises a first post, which is associated with the first barrier, and comprises a second post, which is associated with the second barrier, and wherein each vertical frame further comprises connections between the first and second post, - an innermost zone, which is located between the first and second barrier and which is substantially empty, wherein at least one barrier comprises a plurality of protective slats, wherein the slats extend horizontally between a first post and a second, adjacent post of a barrier, wherein the protective slats are directed obliquely upwards, extending from outside to inside, in order to absorb a shock wave of an incoming explosion or an incoming projectile and to deflect it upwards, wherein the slats define between them obliquely upwardly directed channels, wherein the slats and the obliquely upwardly directed channels form a partially closed, partially open construction, wherein the slats arrest a part of an incoming shock wave and wherein the channels are arranged to let another part of the incoming shock wave pass through the barrier and to deflect it upwards, and wherein the slats are designed to transfer forces of an explosion or incoming projectile onto the vertical frames, and wherein the vertical frames are designed to transfer the forces onto the ground. - a first barrier and a second barrier, which are positioned at a distance from one another, - a plurality of barrier connections between the first and second barrier in the form of vertical frames, wherein the vertical frames are placed at a regular distance from one another, wherein each vertical frame comprises a first post, which is associated with the first barrier, and comprises a second post, which is associated with the second barrier, and wherein each vertical frame further comprises connections between the first and second post, - an innermost zone, which is located between the first and second barrier and which is substantially empty,
Height-adjustable frame part for a piece of furniture, in particular a height-adjustable table leg, comprising - at least two rectangular telescopic elements (36, 38) which can slide axially one inside the other in a telescopic manner, and - a height-adjustment mechanism in the telescopic elements (36, 38), wherein the height-adjustment mechanism comprises a threaded rod which extends in the telescopic elements (36, 38), wherein the threaded rod is guided in a thread of a threaded element in a lower one of the telescopic elements (36, 38), a lower end of the threaded rod is free and an upper end of the threaded rod is mounted in a bearing in a receiving element in an upper one of the telescopic elements (36, 38) in such a way that it can rotate about the longitudinal axis of said rod so as to project upwards out of the receiving element, and furthermore a lower end of the lower telescopic element is closed by a closure plate, wherein the closure plate is held in a form-fitting manner in the lower edge of the lower telescopic element and has at least one lug (134, 136) which projects laterally, preferably in the plane of the closure plate, and the lower edge of the lower telescopic element has a cutout (140, 142) for receiving the at least one lug (134, 136) in a form-fitting manner. - at least two rectangular telescopic elements (36, 38) which can slide axially one inside the other in a telescopic manner, and - a height-adjustment mechanism in the telescopic elements (36, 38), wherein the height-adjustment mechanism comprises a threaded rod which extends in the telescopic elements (36, 38), wherein the threaded rod is guided in a thread of a threaded element in a lower one of the telescopic elements (36, 38), a lower end of the threaded rod is free and an upper end of the threaded rod is mounted in a bearing in a receiving element in an upper one of the telescopic elements (36, 38) in such a way that it can rotate about the longitudinal axis of said rod so as to project upwards out of the receiving element, and furthermore a lower end of the lower telescopic element is closed by a closure plate,
An interface (300, 400) for connecting a manual surgical instrument to a driver of a robotic arm in such a manner that the manual surgical instrument is operable by a driving force transmitted from the driver, the manual surgical instrument being originally an instrument manually operated by an operator and including an operation-target portion (204, 205a, 205b, 206) located on a grip portion, the operation-target portion being configured to be pressed by the operator, wherein the interface is configured to be detachably connected to the driver of the robotic arm through an adaptor, the interface comprising: a driven unit (320, 321, 322, 323, 324, 420, 421, 422, 423, 424) configured to be connected to the driver and be driven by the driving force transmitted from the driver; a manipulation portion (321j, 321h, 322e, 322f, 323e, 324d, 421f, 422f, 422g, 423f, 423g, 424f) configured to be driven by the driven unit so as to depress the operation-target portion of the manual surgical instrument; and a surgical instrument holder (330, 430) configured to hold the manual surgical instrument at a position where the operation-target portion of the manual surgical instrument is positioned with respect to the manipulation portion. a driven unit (320, 321, 322, 323, 324, 420, 421, 422, 423, 424) configured to be connected to the driver and be driven by the driving force transmitted from the driver; a manipulation portion (321j, 321h, 322e, 322f, 323e, 324d, 421f, 422f, 422g, 423f, 423g, 424f) configured to be driven by the driven unit so as to depress the operation-target portion of the manual surgical instrument; and a surgical instrument holder (330, 430) configured to hold the manual surgical instrument at a position where the operation-target portion of the manual surgical instrument is positioned with respect to the manipulation portion.
Mechanical seal arrangement, comprising: - at least one first mechanical seal having a rotating slide ring and a stationary slide ring which delimit a sealing gap therebetween, - a rotational component, and - at least one feather key, characterized by an entrainment member for transmitting a rotation of the rotational component to the rotating slide ring, - wherein the feather key is arranged between the rotational component and the entrainment member to enable a torque transmission between the rotational component and the entrainment member, - wherein the feather key includes a base portion and an upper end portion, and wherein the upper end portion is formed in an arcuate manner. - at least one first mechanical seal having a rotating slide ring and a stationary slide ring which delimit a sealing gap therebetween, - a rotational component, and - at least one feather key, characterized by an entrainment member for transmitting a rotation of the rotational component to the rotating slide ring, - wherein the feather key is arranged between the rotational component and the entrainment member to enable a torque transmission between the rotational component and the entrainment member, - wherein the feather key includes a base portion and an upper end portion, and wherein the upper end portion is formed in an arcuate manner.
A powered ambulance cot for transporting a patient above a surface, comprising: a support frame; four legs (20, 40), each leg having a wheel (26, 46) for supporting the cot on the surface; an actuator (16, 18) of a cot actuation system which interconnects the support frame and a pair of the legs (20, 40), and effects changes in elevation of the support frame relative to the wheel of each of the legs (20, 40); and a cot control system operably connected to the cot actuation system to control activation of the cot actuation system, and characterized in that the cot control system is configured to detect both the actuator (16, 18) at a first location relative to a cross member (63, 65) of the support frame, where the first location is remote from a second location and which situates an end of the actuator (16, 18) that is remote from each wheel (26, 46) closer to the cross member (63, 65) of the support frame, and a presence of a signal requesting a change in elevation of said support frame relative to the wheel of each of the legs (20, 40) and when both are detected, the control system is configured to cause the cot actuation system to move the pair of the legs (20, 40) relative to the support frame to orientate the support frame and the pair of the legs (20,40) either closer or further apart at a first speed that is different from a second speed at which the cot actuation system moves the pair of the legs (20, 40) relative to the support frame when the end of said actuator (16, 18) is at the second location. a support frame; four legs (20, 40), each leg having a wheel (26, 46) for supporting the cot on the surface; an actuator (16, 18) of a cot actuation system which interconnects the support frame and a pair of the legs (20, 40), and effects changes in elevation of the support frame relative to the wheel of each of the legs (20, 40); and a cot control system operably connected to the cot actuation system to control activation of the cot actuation system, and
Method for selection of a first object in a first virtual environment, the method comprising the steps for: - detecting a three-dimensional pointing gesture produced by a user, - estimating an origin and a direction associated with said pointing gesture, to determine a regression ray, - determining a second object corresponding to the intersection between a virtual representation of said second object and said regression ray, characterised in that said second object is visible and has a size of value greater than a threshold value, whereby said first object is represented in said first environment with a size value less than said threshold value, the method comprising further a step of selecting said first object according to said second determined object. - detecting a three-dimensional pointing gesture produced by a user, - estimating an origin and a direction associated with said pointing gesture, to determine a regression ray, - determining a second object corresponding to the intersection between a virtual representation of said second object and said regression ray,
A downhole back-off tool comprising: a firing head comprising an explosive detonator; a magazine cylinder housing a booster explosive and a plurality of detonation cord cavities, wherein the magazine cylinder is secured to the firing head; an elongated mast rod secured at one end thereof to the magazine cylinder; and characterized by a plurality of elongated detonation cords, wherein at least one of the plurality of elongated detonation cords has an end thereof inserted into a respective one of the plurality of detonation cord cavities, and a remaining length thereof secured along the elongated mast rod. a firing head comprising an explosive detonator; a magazine cylinder housing a booster explosive and a plurality of detonation cord cavities, wherein the magazine cylinder is secured to the firing head; an elongated mast rod secured at one end thereof to the magazine cylinder; and characterized by a plurality of elongated detonation cords, wherein at least one of the plurality of elongated detonation cords has an end thereof inserted into a respective one of the plurality of detonation cord cavities, and a remaining length thereof secured along the elongated mast rod.
An annular mount for a gas turbine engine, comprising: a first flange having an arcuate shape; and a second flange extending from the first flange and having an interface surface along at least one side thereof, wherein the second flange has a plurality of mounting apertures extending therethrough and a plurality of channels that extend along a length of the interface surface from a first edge to a second edge at the radially outer extent of the second flange, wherein the mounting apertures are interposed between the plurality of channels; characterized in that: the annular mount further comprises impingement holes that extend through the second flange, wherein at least one of the channels communicate with one or more impingement holes. a first flange having an arcuate shape; and a second flange extending from the first flange and having an interface surface along at least one side thereof, wherein the second flange has a plurality of mounting apertures extending therethrough and a plurality of channels that extend along a length of the interface surface from a first edge to a second edge at the radially outer extent of the second flange, wherein the mounting apertures are interposed between the plurality of channels; characterized in that: the annular mount further comprises impingement holes that extend through the second flange, wherein at least one of the channels communicate with one or more impingement holes. the annular mount further comprises impingement holes that extend through the second flange, wherein at least one of the channels communicate with one or more impingement holes.
A method, comprising: obtaining a seismic dataset (101,102) that is separated into subsets according to predetermined subsurface reflection angle ranges; performing, with a computer, an acoustic full wavefield inversion process on each of the subsets, respectively, to invert for density and generate respective density models; generating acoustic impedances for each of the subsets, as a function of reflection angle, using the respective density models; transforming, using a computer, the acoustic impedances for each of the subsets into reflectivity sections, wherein the transforming includes normalizing the reflectivity sections by their respective bandwidth; and wherein said bandwidths are obtained by: using, for each of the reflectivity sections, a Fourier transform, discrete Fourier transform, or a fast Fourier transform to calculate an average spectrum within at least one local window that is applied at a same location to all of the reflectivity sections, and determining a bandwidth for each average spectrum. obtaining a seismic dataset (101,102) that is separated into subsets according to predetermined subsurface reflection angle ranges; performing, with a computer, an acoustic full wavefield inversion process on each of the subsets, respectively, to invert for density and generate respective density models; generating acoustic impedances for each of the subsets, as a function of reflection angle, using the respective density models; transforming, using a computer, the acoustic impedances for each of the subsets into reflectivity sections, wherein the transforming includes normalizing the reflectivity sections by their respective bandwidth; and wherein said bandwidths are obtained by: using, for each of the reflectivity sections, a Fourier transform, discrete Fourier transform, or a fast Fourier transform to calculate an average spectrum within at least one local window that is applied at a same location to all of the reflectivity sections, and determining a bandwidth for each average spectrum.