mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving, by a computing device , a request from a client including first status information, wherein the first status information was included in a first instance of a media presentation description for a first set of segments of a stream of a media presentation and identified a break from the stream of the media presentation for insertion of supplemental content, the first status information further including a link back to the stream of the media presentation ; using, by the computing device , the first status information to identify supplemental content for the client ; and sending, by the computing device , a second instance of the media presentation description for at least a portion of the supplemental content, wherein the second instance of the media presentation description includes the link back to the stream of the media presentation as second status information that reverts the client back to the stream of the media presentation after insertion of the supplemental content. receiving, by a computing device , a request from a client including first status information, wherein the first status information was included in a first instance of a media presentation description for a first set of segments of a stream of a media presentation and identified a break from the stream of the media presentation for insertion of supplemental content, the first status information further including a link back to the stream of the media presentation ; using, by the computing device , the first status information to identify supplemental content for the client ; and sending, by the computing device , a second instance of the media presentation description for at least a portion of the supplemental content, wherein the second instance of the media presentation description includes the link back to the stream of the media presentation as second status information that reverts the client back to the stream of the media presentation after insertion of the supplemental content.
A coupling assembly, particularly for dental implants, comprising at least one pin , which can be coupled rigidly to a bone portion (A), and a supporting element , which can be associated with a prosthesis (B), said pin having, at its end portion that lies opposite the one designed for connection to the bone portion (A), a protruding tab that can be accommodated by elastic forcing in a respective cavity formed in said supporting element so as to produce a stable coupling configuration between said pin and said supporting element , wherein said tab is shaped like an equatorial portion of a sphere, its outer lateral surface being adapted to abut, with at least one of its parts, against the internal side walls of said cavity , so as to determine said stable coupling configuration, said supporting element being provided with a step , to allow coupling to a matrix provided in the prosthesis (B), and being constituted by a cap that has a substantially cylindrical shape and is open at one end face, so as to form said cavity , the internal walls of said cavity having a flared portion that is substantially complementary to the curvature of said outer lateral surface of said tab .
An apparatus, comprising: an interposer (203; 600; 700; 800) having conductive layers (451; 452; 453; 457; 603; 604; 611; 707) disposed above a top surface of an interposer substrate , the interposer substrate having a plurality of conductors and a plurality of charge attracting structures (610; 620; 710; 720; 810; 820), the charge attracting structures (610; 620; 710; 720; 810; 820) configured to function as decoupling capacitors, the charge attracting structures (610; 620; 710; 720; 810; 820) comprising either a heavily doped n-type region (613; 813) formed in p-doped well (615; 715) or a heavily doped p-type region (614; 814) formed in n-doped well (616; 716; 816); wherein the plurality of charge attracting structures (610; 620; 710; 720; 810; 820) are configured to protect at least one integrated circuit die to be coupled to the interposer (203; 600; 700; 800) to provide a stacked die ; and wherein the plurality of conductors include a plurality of through-substrate vias formed through the interposer substrate and coupled to the plurality of charge attracting structures (610; 620; 710; 720; 810; 820) through respective ones of said conductive layers (451; 452; 453; 457; 603; 604; 611; 707). an interposer (203; 600; 700; 800) having conductive layers (451; 452; 453; 457; 603; 604; 611; 707) disposed above a top surface of an interposer substrate , the interposer substrate having a plurality of conductors and a plurality of charge attracting structures (610; 620; 710; 720; 810; 820), the charge attracting structures (610; 620; 710; 720; 810; 820) configured to function as decoupling capacitors, the charge attracting structures (610; 620; 710; 720; 810; 820) comprising either a heavily doped n-type region (613; 813) formed in p-doped well (615; 715) or a heavily doped p-type region (614; 814) formed in n-doped well (616; 716; 816); wherein the plurality of charge attracting structures (610; 620; 710; 720; 810; 820) are configured to protect at least one integrated circuit die to be coupled to the interposer (203; 600; 700; 800) to provide a stacked die ; and wherein the plurality of conductors include a plurality of through-substrate vias formed through the interposer substrate and coupled to the plurality of charge attracting structures (610; 620; 710; 720; 810; 820) through respective ones of said conductive layers (451; 452; 453; 457; 603; 604; 611; 707).
A glass sealing sheet comprising: a glass core layer (105; 205; 305) having a first side and a second side; and a first cladding layer (110; 210; 310) bonded to the first side of the glass core layer (105; 205; 305); wherein the first cladding layer (110; 210; 310) has a first coefficient of thermal expansion and is formed from a glass composition comprising radiation absorbing constituents, characterised in that the glass sealing sheet further comprises a second cladding layer (115; 215; 315) bonded to the second side of the glass core layer (105; 205; 305); in that the second cladding layer (115; 215; 315) is formed from a polymer composition comprising radiation absorbing constituents and has a second coefficient of thermal expansion; in that a differential between the first coefficient of thermal expansion and the second coefficient of thermal expansion ranges from 0x10 -7 /°C to 10x10 -7 /°C; and in that the radiation absorbing constituents comprise a transition metal or rare earth element, wherein the transition metal or rare earth element is selected from the group consisting of iron, copper, vanadium, manganese, cobalt, nickel, chromium, neodymium, and cerium. a glass core layer (105; 205; 305) having a first side and a second side; and a first cladding layer (110; 210; 310) bonded to the first side of the glass core layer (105; 205; 305); wherein the first cladding layer (110; 210; 310) has a first coefficient of thermal expansion and is formed from a glass composition comprising radiation absorbing constituents, characterised in that the glass sealing sheet further comprises a second cladding layer (115; 215; 315) bonded to the second side of the glass core layer (105; 205; 305); in that the second cladding layer (115; 215; 315) is formed from a polymer composition comprising radiation absorbing constituents and has a second coefficient of thermal expansion; in that a differential between the first coefficient of thermal expansion and the second coefficient of thermal expansion ranges from 0x10 -7 /°C to 10x10 -7 /°C; and in that the radiation absorbing constituents comprise a transition metal or rare earth element, wherein the transition metal or rare earth element is selected from the group consisting of iron, copper, vanadium, manganese, cobalt, nickel, chromium, neodymium, and cerium.
Dosing device for dosing and supplying a medium from a container to a target device , in particular to a dishwasher in combination with a container and with a holder for the container and in combination with a discharge opening for water, wherein the dosing device comprises a control with which a valve on a water pipe can be actuated in order to dispense a specified amount of water via the discharge opening , wherein the container has an outlet opening in which a sieve is arranged, which hinders the medium from exiting the container , wherein the discharge opening is arranged adjoining the sieve , in such a way that the sieve can be acted upon, in particular sprayed, with the water exiting from the discharge opening , wherein as a result of applying the sieve , the medium can be dissolved in the water , and the dissolved medium can be supplied as a solution to the target device , and wherein the dosing device also comprises a collection device for receiving the solution and for conveying it on, in particular with the aid of a hose line to the target vessel, wherein the collection device comprises a funnel , which is positioned below the sieve and below the discharge opening and is arranged spaced apart from the discharge opening without contact and spaced apart from the sieve without contact, and which has a funnel opening having an inner diameter which exceeds the dimensions of the outlet opening in the container .
A method comprising: calculating predicted load changes for a target radio access point for one or more potential user equipment, UE, , handovers from each of a plurality of source radio access points for a radio access network based, at least in part, on application of current measurement data to a trained statistical model representing load changes for the radio access network; determining a set of one or more source radio access points from the plurality of source radio access points that can be powered off to maximize energy savings or minimize energy consumption for the radio access network based on the calculated predicted load changes; initiating handover to the target radio access point for one or more UE connected to the one or more source radio access points belonging to the set; and powering off the one or more source radio access points belonging to the set. calculating predicted load changes for a target radio access point for one or more potential user equipment, UE, , handovers from each of a plurality of source radio access points for a radio access network based, at least in part, on application of current measurement data to a trained statistical model representing load changes for the radio access network; determining a set of one or more source radio access points from the plurality of source radio access points that can be powered off to maximize energy savings or minimize energy consumption for the radio access network based on the calculated predicted load changes; initiating handover to the target radio access point for one or more UE connected to the one or more source radio access points belonging to the set; and powering off the one or more source radio access points belonging to the set.
A photoresistor comprising: a silicon-on-insulator substrate comprising a device layer ; at least two non-contiguous first highly conductive regions of a semiconductor material formed on a surface of the device layer; at least one active region of a high resistivity semiconductor material of a same conductivity type as the first highly conductive regions formed to propagate through a whole thickness of the device layer and to electrically contact the at least two non-contiguous first highly conductive regions. a silicon-on-insulator substrate comprising a device layer ; at least two non-contiguous first highly conductive regions of a semiconductor material formed on a surface of the device layer; at least one active region of a high resistivity semiconductor material of a same conductivity type as the first highly conductive regions formed to propagate through a whole thickness of the device layer and to electrically contact the at least two non-contiguous first highly conductive regions.
A recuperated gas turbine engine comprising a cooling system for cooling hot components of the engine, the cooling system comprising: a compressor (C) comprising a compressor outlet; a turbine (T) comprising a turbine inlet and a turbine outlet; a recuperator heat exchanger (HX); a recuperator flow path in fluid communication with the compressor outlet and the recuperator heat exchanger (HX); and a bleed flow path in fluid communication with the compressor outlet, the hot components of the recuperated gas turbine engine, and the turbine inlet; wherein the hot components of the engine comprise a turbine volute in fluid communication with the bleed flow path ; and a ratio of a mass flow in the bleed flow path to a mass flow in the compressor outlet is equal to a bleed fraction which is greater than or equal to zero and less than or equal to one. a compressor (C) comprising a compressor outlet; a turbine (T) comprising a turbine inlet and a turbine outlet; a recuperator heat exchanger (HX); a recuperator flow path in fluid communication with the compressor outlet and the recuperator heat exchanger (HX); and a bleed flow path in fluid communication with the compressor outlet, the hot components of the recuperated gas turbine engine, and the turbine inlet; wherein the hot components of the engine comprise a turbine volute in fluid communication with the bleed flow path ; and a ratio of a mass flow in the bleed flow path to a mass flow in the compressor outlet is equal to a bleed fraction which is greater than or equal to zero and less than or equal to one.
A device to verify main rotor swashplate positioning, comprising: a first surface of a first section ; and a gradient surface of a second section having a plurality of incremental steps ; wherein the first and second sections are parallel and concentric relative to a central axis, wherein the first surface is configured to nest against a convex curvature of a collective sleeve of a main rotor mast , wherein the gradient surface is configured to contact a swashplate lug of a main rotor swashplate, and wherein the gradient surface , having the plurality of incremental steps , is inclined. a first surface of a first section ; and a gradient surface of a second section having a plurality of incremental steps ; wherein the first and second sections are parallel and concentric relative to a central axis, wherein the first surface is configured to nest against a convex curvature of a collective sleeve of a main rotor mast , wherein the gradient surface is configured to contact a swashplate lug of a main rotor swashplate, and wherein the gradient surface , having the plurality of incremental steps , is inclined.
A test and measurement instrument , comprising: a display configured to present a plurality of traces; a first user interface control associated with a first input channel; and a second user interface control associated with a second input channel; wherein the first user interface control is operable to select a first frequency domain acquisition parameter used to acquire a first input signal, and the second user interface control is operable to select a second frequency domain acquisition parameter used to acquire a second input signal simultaneously with the first input signal; wherein the second frequency domain acquisition parameter is independent from the first frequency domain acquisition parameter; and wherein the test and measurement instrument is configured to present simultaneously, on the display , a first trace based on the first input signal, and a second trace based on the second input signal. a display configured to present a plurality of traces; a first user interface control associated with a first input channel; and a second user interface control associated with a second input channel; wherein the first user interface control is operable to select a first frequency domain acquisition parameter used to acquire a first input signal, and the second user interface control is operable to select a second frequency domain acquisition parameter used to acquire a second input signal simultaneously with the first input signal; wherein the second frequency domain acquisition parameter is independent from the first frequency domain acquisition parameter; and wherein the test and measurement instrument is configured to present simultaneously, on the display , a first trace based on the first input signal, and a second trace based on the second input signal.
An absorbent article comprising a liquid-permeable top sheet, a liquid-impermeable back sheet and an absorbent body situated between these sheets, with either or both the top sheet and the back sheet being formed by a synthetic resin sheet that includes an oxidative decomposer, wherein the oxidative decomposer is made of a mixture of a carboxylate and a rare earth compound, the synthetic resin sheet includes an oxidative decomposer in a mass ratio such that a decomposition rate index (D i ) determined based on a following formula is 7.8 or less, and the absorbent article includes an oxidative decomposition accelerator composed of a peroxide, further toward a non-skin side than the absorbent body and/or inside water-sensitive capsules in the absorbent body, in a mass ratio of 40 parts by mass or greater with respect to 100 parts by mass of the oxidative decomposer. D i = B r × S a [In formula , B r represents a mass ratio (g/g) of the oxidative decomposer with respect to a synthetic resin component in the synthetic resin sheet, and S a represents a specific surface area (cm 2 /g) of the synthetic resin sheet.] the oxidative decomposer is made of a mixture of a carboxylate and a rare earth compound, the synthetic resin sheet includes an oxidative decomposer in a mass ratio such that a decomposition rate index (D i ) determined based on a following formula is 7.8 or less, and the absorbent article includes an oxidative decomposition accelerator composed of a peroxide, further toward a non-skin side than the absorbent body and/or inside water-sensitive capsules in the absorbent body, in a mass ratio of 40 parts by mass or greater with respect to 100 parts by mass of the oxidative decomposer. D i = B r × S a [In formula , B r represents a mass ratio (g/g) of the oxidative decomposer with respect to a synthetic resin component in the synthetic resin sheet, and S a represents a specific surface area (cm 2 /g) of the synthetic resin sheet.]
Tube rail cart comprising a chassis and scissor lift mounted thereon with a manually height-adjustable platform between a lowered position with minimum height and an extended position with maximum height and which is provided with a lock for locking the platform in several height positions, characterised in that the lock comprises two different locking mechanisms, respectively a first locking mechanism for locking the platform in an intermediary position between the lowered position and the extended position and a second locking mechanism for locking the platform in the extended position.
A rapid-entry shoe comprising: an upper comprising a rear portion, wherein the rear portion has an uncollapsed position and deforms to a collapsed position; and an actuator arm comprising a pivot point and a closure system coupled to the actuator arm ; wherein movement of the actuator arm from the uncollapsed position to the collapsed position opens the closure system to provide a wider opening to receive a wearer's foot, and wherein movement of the actuator arm from the collapsed position to the uncollapsed position closes the closure system ; wherein the actuator arm comprises a rear segment and a forward segment , wherein the pivot point is disposed between the rear segment and the forward segment and the closure system is coupled to the forward segment of the actuator arm ; wherein a coupling point between the forward segment of the actuator arm and the closure system enables relative rotation of the actuator arm and the closure system ; and wherein in the uncollapsed position the coupling point is closer to a footbed of the rapid-entry shoe than the pivot point , and wherein in the collapsed position the coupling point is farther above the footbed than the pivot point .
A fuse device comprising • a fuse having a fuse body with two contact ends , • two plug contacts , • two connection caps , • a protective body , characterized in that the fuse device comprises two plug connectors , two flat pin sockets and two electrical conductors , and in that each contact end is in each case electrically conductively connected to one of the two plug contacts , wherein each of the plug contacts is in each case connected to one of the two plug connectors , and wherein the fuse is inserted completely and the respective plug connector is inserted at least partially into the common protective body , wherein in each case one of the two connection caps , each having an electrically conductive connection element , is attached to the respective contact end , and wherein the connection element is electrically conductively connected to one of the two plug contacts , the respective connection element being designed as a tab for a flat pin socket, and wherein in each case one of the two flat pin sockets is fitted onto the tab, which is electrically conductively connected in each case to one of the two electrical conductors , wherein the respective electrical conductor is electrically connected to the respective plug contact , and wherein the respective plug connector is designed as a plug or socket, and wherein in each case a plug connector is attached to one of the two plug contacts at both ends of the fuse . • a fuse having a fuse body with two contact ends , • two plug contacts , • two connection caps , • a protective body ,
A method of synthesizing a carbon nanostructure, comprising: pyrolyzing an organic material in a first furnace to obtain one or more gaseous decomposition products; mixing the one or more gaseous decomposition products with one or more gases to produce a mixture and prevent formation of a flame; and contacting the mixture of the one or more gaseous decomposition products and one or more gases with a supported catalyst in a second furnace, thereby synthesizing the carbon nanostructure. pyrolyzing an organic material in a first furnace to obtain one or more gaseous decomposition products; mixing the one or more gaseous decomposition products with one or more gases to produce a mixture and prevent formation of a flame; and contacting the mixture of the one or more gaseous decomposition products and one or more gases with a supported catalyst in a second furnace, thereby synthesizing the carbon nanostructure.
Valve fixing plate , having a gas valve , a gas conduit , a switch associated with the gas valve and a valve pin associated with the gas valve , wherein the valve fixing plate is used to fix the gas valve to a gas conduit connected to a burner , wherein the valve fixing plate has an upper part and a side part , wherein the side part is formed in one piece with the upper part and the valve pin passes through the side part and wherein the valve fixing plate comprises a support extension , characterised in that the support extension is moulded on the side part , that the valve fixing plate is placed onto the gas conduit from above, and that the support extension sufficiently supports the switch at least from above and from behind, wherein the support extension has an upper support which extends inwards and is substantially parallel to the upper part , and a rear stop moulded on the continuation of the upper part and sticking out perpendicular to the base in respect of the upper part , wherein the support extension has an inclined surface moulded in the initial region of the upper support and sticking out at a particular acute angle to the base in respect of the upper part and wherein the initial region of the upper support is the inclined surface , and the continuation of the upper support extends substantially parallel to the upper part , wherein the rear stop is located on the continuation of the upper support and extends substantially perpendicular to the upper part .