mhurhangee/patent-ind-claim-en huggingface dataset:
A shale shaker for separating solids from solids laden drilling fluid, the shale shaker comprising a base (D), a basket isolated from the base (D) and a vibratory mechanism , the basket having a feed end, a solids discharge end and sides therebetween, the basket comprising a scalping deck , an upper deck and a lower deck , the upper deck and lower deck having a feed end and a solids discharge end, the upper deck and lower deck at an uphill angle from the feed end to the discharge end, wherein a trough is arranged in the basket at said discharge end of said upper deck and a diverter plate for facilitating flow of solids discharged from the discharge end of the upper deck into said trough , the trough having a floor which slopes towards respective side openings of the trough .
A semiconductor integrated circuit that is used for a stabilizing power supply circuit which supplies an output power supply voltage (Vout) to a parallel connection of a smoothing capacitor (C) and a load which are connected to an output terminal from an input power supply voltage (Vin) which is supplied to an input terminal, comprising: an error amplifier that detects an error of the output power supply voltage; an output control circuit that is connected between the input terminal and the output terminal; a phase compensation circuit that is connected to the error amplifier; and a detection control circuit that is connected to the phase compensation circuit, whe rein the output control circuit is controlled by the error amplifier responding to the error of the output power supply voltage, thereby generating the output power supply voltage, and the detection control circuit detects a temperature variation of the smoothing capacitor or a resistance variation of the smoothing capacitor due to the temperature variation, and variably controls the phase compensation circuit according to the detected result, wherein the detection control circuit uses a rate of change of a forward voltage drop of a PN junction diode with respect to temperature, thereby detecting temperature variation of the smoothing capacitor which is ambient temperature of the stabilizing power supply circuit, or wherein the detection control circuit detects variation of a voltage amplitude level of a ripple voltage included in the output power supply voltage, thereby detecting the resistance variation of the smoothing capacitor due to the temperature variation. an error amplifier that detects an error of the output power supply voltage; an output control circuit that is connected between the input terminal and the output terminal; a phase compensation circuit that is connected to the error amplifier; and a detection control circuit that is connected to the phase compensation circuit, whe rein the output control circuit is controlled by the error amplifier responding to the error of the output power supply voltage, thereby generating the output power supply voltage, and the detection control circuit detects a temperature variation of the smoothing capacitor or a resistance variation of the smoothing capacitor due to the temperature variation, and variably controls the phase compensation circuit according to the detected result, wherein the detection control circuit uses a rate of change of a forward voltage drop of a PN junction diode with respect to temperature, thereby detecting temperature variation of the smoothing capacitor which is ambient temperature of the stabilizing power supply circuit, or wherein the detection control circuit detects variation of a voltage amplitude level of a ripple voltage included in the output power supply voltage, thereby detecting the resistance variation of the smoothing capacitor due to the temperature variation.
An end effector of a surgical stapling apparatus , the end effector comprising: an anvil buttress having a proximal end portion including a strap ; and an anvil assembly , the anvil assembly including an anvil body having a proximal end portion and a distal end portion, the proximal end portion having a tissue stop configured to prevent proximal tissue migration, the tissue stop including a strap lock , the strap lock configured to secure the strap of the anvil buttress to the anvil assembly to secure the anvil buttress to the anvil assembly, wherein the tissue stop defines a buttress slot positioned to receive the proximal end portion of the anvil buttress therein and wherein the buttress slot includes a receiving channel and a retention cavity that are separated by the strap lock. an anvil buttress having a proximal end portion including a strap ; and an anvil assembly , the anvil assembly including an anvil body having a proximal end portion and a distal end portion, the proximal end portion having a tissue stop configured to prevent proximal tissue migration, the tissue stop including a strap lock , the strap lock configured to secure the strap of the anvil buttress to the anvil assembly to secure the anvil buttress to the anvil assembly, wherein the tissue stop defines a buttress slot positioned to receive the proximal end portion of the anvil buttress therein and wherein the buttress slot includes a receiving channel and a retention cavity that are separated by the strap lock.
A processor implemented method comprising: dividing, by one or more processors, each frame from an acquired plurality of frames of a streaming media into a plurality of segments having a maximum size limited by a maximum transmission unit , MTU, associated with an underlying network of transmission of the plurality of media frames ; analyzing, by the one or more processors, the plurality of segments for one or more critical characteristics at a video consumer end and identifying one or more critical segments from the plurality of segments, wherein the characteristics include at least one of position, segment length and video format of the streaming media , wherein the one or more critical segments are transmitted by a confirmable, CON, message and the remaining segments from the plurality of segments are transmitted by a non-confirmable , NON, message using Constrained Application Protocol, CoAP, wherein the non-confirmable , NON, message is accompanied by a No-Response option; adapting transmission semantics, by the one or more processors, in real-time, by utilizing the characteristics of the identified one or more critical segments and transmitting, by one or more processors, the plurality of segments as REpresentational State Transfer , RESTful, requests and aborting transmission of the remaining segments from the plurality of segments associated with a frame, in the event that transmitting of the one or more critical segments by the CON message is unsuccessful. dividing, by one or more processors, each frame from an acquired plurality of frames of a streaming media into a plurality of segments having a maximum size limited by a maximum transmission unit , MTU, associated with an underlying network of transmission of the plurality of media frames ; analyzing, by the one or more processors, the plurality of segments for one or more critical characteristics at a video consumer end and identifying one or more critical segments from the plurality of segments, wherein the characteristics include at least one of position, segment length and video format of the streaming media , wherein the one or more critical segments are transmitted by a confirmable, CON, message and the remaining segments from the plurality of segments are transmitted by a non-confirmable , NON, message using Constrained Application Protocol, CoAP, wherein the non-confirmable , NON, message is accompanied by a No-Response option; adapting transmission semantics, by the one or more processors, in real-time, by utilizing the characteristics of the identified one or more critical segments and transmitting, by one or more processors, the plurality of segments as REpresentational State Transfer , RESTful, requests and aborting transmission of the remaining segments from the plurality of segments associated with a frame, in the event that transmitting of the one or more critical segments by the CON message is unsuccessful.
A thermoplastic composition comprising, based on the total weight of the composition: from 20 wt% to 90 wt% of a primary thermoplastic resin comprising a polycarbonate component; from 0.5 wt% to 30 wt% of a functional filler comprising electrically conductive carbon powder, carbon nanotubes, or a combination thereof; from 0 wt% to 20 wt% of a second thermoplastic resin; and from 0 wt% to 40 wt% of at least one additional additive, wherein the polycarbonate component comprises at least 5 wt% of a poly(aliphatic ester)-polycarbonate copolymer based on the total weight of the polycarbonate component, and wherein the combined weight percent value of all components does not exceed 100 wt%. from 20 wt% to 90 wt% of a primary thermoplastic resin comprising a polycarbonate component; from 0.5 wt% to 30 wt% of a functional filler comprising electrically conductive carbon powder, carbon nanotubes, or a combination thereof; from 0 wt% to 20 wt% of a second thermoplastic resin; and from 0 wt% to 40 wt% of at least one additional additive,
A method of manufacturing a stretchable display device (100; 200; 300; 400; 500), comprising: forming a lower substrate and an upper substrate , the lower substrate and the upper substrate being flexible; forming a plurality of island substrates on the lower substrate and spaced apart from each other, the plurality of island substrates defining a plurality of pixels (PX, SPX); and forming a connection line (180; 181; 182; 183) which electrically connects pads (109; 119; 129) on the plurality of island substrates , the connection line being disposed between adjacent island substrates among the plurality of island substrates , wherein the upper substrate is made of a stretchable polymer material and includes a plurality of first upper patterns overlapping an emission area of the plurality of island substrates and a second upper pattern excluding the plurality of first upper patterns , characterized in that the second upper pattern includes a black pigment; wherein an elastic modulus of the plurality of first upper patterns is larger than an elastic modulus of the second upper pattern . forming a lower substrate and an upper substrate , the lower substrate and the upper substrate being flexible; forming a plurality of island substrates on the lower substrate and spaced apart from each other, the plurality of island substrates defining a plurality of pixels (PX, SPX); and forming a connection line (180; 181; 182; 183) which electrically connects pads (109; 119; 129) on the plurality of island substrates , the connection line being disposed between adjacent island substrates among the plurality of island substrates , wherein the upper substrate is made of a stretchable polymer material and includes a plurality of first upper patterns overlapping an emission area of the plurality of island substrates and a second upper pattern excluding the plurality of first upper patterns , characterized in that the second upper pattern includes a black pigment; wherein an elastic modulus of the plurality of first upper patterns is larger than an elastic modulus of the second upper pattern .
A separating device for removing solid particles from fluids, comprising: - a stack of at least three annular discs defining a central annular region along a central axis, each annular disc having an upper side and an underside , wherein the upper side of each annular disc each has two or more spacers , and wherein the upper side of each annular disc contacts the underside of the adjacent annular disc defining a separating gap , - a perforated pipe , which is located inside the concentric stack of at least three annular discs, - an end cap at the upper end of the central annular region and an end cap at the lower end of the central annular region , and - a band which is provided helically in axial direction on the outer surface of the perforated pipe and around which the annular discs are placed, whereby the annular discs are centered on the perforated pipe . - a stack of at least three annular discs defining a central annular region along a central axis, each annular disc having an upper side and an underside , wherein the upper side of each annular disc each has two or more spacers , and wherein the upper side of each annular disc contacts the underside of the adjacent annular disc defining a separating gap , - a perforated pipe , which is located inside the concentric stack of at least three annular discs, - an end cap at the upper end of the central annular region and an end cap at the lower end of the central annular region , and - a band which is provided helically in axial direction on the outer surface of the perforated pipe and around which the annular discs are placed, whereby the annular discs are centered on the perforated pipe .
An exhaust gas purification catalyst comprising: a support (A); a first catalyst layer (B) on an upstream side; a second catalyst layer (C) on a downstream side; and a third catalyst layer (D), wherein an upstream portion (D 1 ) of the third catalyst layer (D) is present on the first catalyst layer (B), a downstream portion (D 3 ) of the third catalyst layer (D) is present on the second catalyst layer (C), and a middle portion (D 2 ) of a third catalyst layer (D) between the upstream portion (D 1 ) and the downstream portion (D 3 ) is present between the first catalyst layer (B) and the second catalyst layer (C), characterized in that all of the first catalyst layer (B), the second catalyst layer (C), and the third catalyst layer (D) contain a noble metal, and a mass of the noble metal contained in the first catalyst layer (B) is larger than a mass of the noble metal contained in the second catalyst layer (C).
A dissolvable solid structure comprising fibers, wherein the fibers are formed from a filament, wherein the filament includes meltblown filament, wherein the fibers are formed from a composition comprising: a. from 10% to 75% of a surfactant; b. from 10% to 70% water soluble polymeric structurant; wherein the dissolvable solid structure comprises from 1 wt% to 80 wt% preformed effervescent agglomerated particles; wherein the dissolvable solid structure comprises a detersive surfactant from 0.5 g to 4.0 g, a detersive surfactant density from 0.1 g/cm 3 to 0.3 g/cm 3 ; the dissolvable solid structure weight is from 1.0 g to 4.0 g, wherein the footprint of the dissolvable solid structure is from 1 cm 2 to 50 cm 2 ; wherein the bulk density of the dissolvable solid structure is from 0.300 g/cm 3 to 0.375 g/cm 3 ; and wherein the dissolvable solid structure has a dissolution of less than 25 strokes of the Hand Dissolution Method, wherein the method of measurements are defined as in the present description. a. from 10% to 75% of a surfactant; b. from 10% to 70% water soluble polymeric structurant; wherein the dissolvable solid structure comprises from 1 wt% to 80 wt% preformed effervescent agglomerated particles; wherein the dissolvable solid structure comprises a detersive surfactant from 0.5 g to 4.0 g, a detersive surfactant density from 0.1 g/cm 3 to 0.3 g/cm 3 ; the dissolvable solid structure weight is from 1.0 g to 4.0 g, wherein the footprint of the dissolvable solid structure is from 1 cm 2 to 50 cm 2 ; wherein the bulk density of the dissolvable solid structure is from 0.300 g/cm 3 to 0.375 g/cm 3 ; and wherein the dissolvable solid structure has a dissolution of less than 25 strokes of the Hand Dissolution Method, wherein the method of measurements are defined as in the present description. wherein the dissolvable solid structure comprises from 1 wt% to 80 wt% preformed effervescent agglomerated particles; wherein the dissolvable solid structure comprises a detersive surfactant from 0.5 g to 4.0 g, a detersive surfactant density from 0.1 g/cm 3 to 0.3 g/cm 3 ; the dissolvable solid structure weight is from 1.0 g to 4.0 g, wherein the footprint of the dissolvable solid structure is from 1 cm 2 to 50 cm 2 ; wherein the bulk density of the dissolvable solid structure is from 0.300 g/cm 3 to 0.375 g/cm 3 ; and wherein the dissolvable solid structure has a dissolution of less than 25 strokes of the Hand Dissolution Method, wherein the method of measurements are defined as in the present description.
An antenna housing comprising a polymer composition, wherein the polymer composition comprises a thermoplastic polymer, glass fiber and an inorganic filler, wherein the thermoplastic polymer is a heterophasic propylene copolymer consisting of a propylene-based matrix and a dispersed ethylene-α-olefin copolymer, wherein the heterophasic copolymer comprises between 70 and 90 wt % of said matrix and between 10 and 30 wt % of said dispersed phase, wherein the inorganic filler is present in an amount of 2 to 20 wt% of the total polymer composition, the total amount of glass fiber and the inorganic filler is from 21 to 50 wt%, and wherein the ratio between the amount of glass fiber and the amount of inorganic filler is from 1.0 to 16.0. wherein the inorganic filler is present in an amount of 2 to 20 wt% of the total polymer composition, the total amount of glass fiber and the inorganic filler is from 21 to 50 wt%, and wherein the ratio between the amount of glass fiber and the amount of inorganic filler is from 1.0 to 16.0.
A biostimulator comprising: a housing containing an electronics compartment and including a flange having a plurality of interrupted external threads extending about a longitudinal axis ; and a helix mount mounted on the housing and comprising a plurality of interrupted internal threads engaging the plurality of interrupted external threads to form a threaded connection . a housing containing an electronics compartment and including a flange having a plurality of interrupted external threads extending about a longitudinal axis ; and a helix mount mounted on the housing and comprising a plurality of interrupted internal threads engaging the plurality of interrupted external threads to form a threaded connection .
A method for determining a location of artefacts and/or inclusions in a gemstone, mineral or sample thereof, the method comprising the steps of: surface mapping a gemstone, mineral or sample thereof to determine surface geometry associated with at least a portion of a surface of the gemstone, mineral or sample thereof; sub-surface mapping the gemstone, mineral or sample thereof using an optical beam that is directed at the surface along an optical beam path, wherein the optical beam is generated by an optical source using an optical tomography process; determining a surface normal at the surface at an intersection point between the optical beam path and the determined surface geometry; determining relative positioning between the surface normal and the optical beam path; and determining the location of artefacts and/or inclusions in the gemstone, mineral or sample thereof based on the sub-surface mapping step and the determined relative positioning; characterized in that based on the determined relative positioning, during the sub-surface mapping of the gemstone, mineral or sample thereof, the gemstone, mineral or sample thereof and the optical beam are moved relative to each other to cause the optical beam path to be substantially in line with the surface normal where the optical beam path intersects with the surface. surface mapping a gemstone, mineral or sample thereof to determine surface geometry associated with at least a portion of a surface of the gemstone, mineral or sample thereof; sub-surface mapping the gemstone, mineral or sample thereof using an optical beam that is directed at the surface along an optical beam path, wherein the optical beam is generated by an optical source using an optical tomography process; determining a surface normal at the surface at an intersection point between the optical beam path and the determined surface geometry; determining relative positioning between the surface normal and the optical beam path; and determining the location of artefacts and/or inclusions in the gemstone, mineral or sample thereof based on the sub-surface mapping step and the determined relative positioning; characterized in that based on the determined relative positioning, during the sub-surface mapping of the gemstone, mineral or sample thereof, the gemstone, mineral or sample thereof and the optical beam are moved relative to each other to cause the optical beam path to be substantially in line with the surface normal where the optical beam path intersects with the surface.
A method for controlling a transmission of a vehicle , the method comprising - establishing a desired speed profile (SP) for the vehicle when travelling along a road segment (RS), - performing a plurality of simulations, each of a vehicle response (VR1, VR2), in the road segment, to a respective gear control action, wherein the gear control action differs from one simulation to another, wherein the simulations include a condition to keep a vehicle speed (V) on the speed profile (SP), or within one or more established limits (DLU1, DLU2, DLL1, DLL2) of deviations from the speed profile, wherein the vehicle responses (VR1, VR2) of the simulations include at least one of the vehicle speed (V), a vehicle acceleration, and a torque of the vehicle, characterized by further comprising - determining costs for the simulated vehicle responses (VR1, VR2), - selecting, in dependence on the determined costs, one of the gear control actions, - controlling the transmission with the selected gear control action. - establishing a desired speed profile (SP) for the vehicle when travelling along a road segment (RS), - performing a plurality of simulations, each of a vehicle response (VR1, VR2), in the road segment, to a respective gear control action, wherein the gear control action differs from one simulation to another, wherein the simulations include a condition to keep a vehicle speed (V) on the speed profile (SP), or within one or more established limits (DLU1, DLU2, DLL1, DLL2) of deviations from the speed profile, wherein the vehicle responses (VR1, VR2) of the simulations include at least one of the vehicle speed (V), a vehicle acceleration, and a torque of the vehicle, characterized by further comprising - determining costs for the simulated vehicle responses (VR1, VR2), - selecting, in dependence on the determined costs, one of the gear control actions, - controlling the transmission with the selected gear control action. - determining costs for the simulated vehicle responses (VR1, VR2), - selecting, in dependence on the determined costs, one of the gear control actions, - controlling the transmission with the selected gear control action.