mhurhangee/ep-ind-claims huggingface dataset:
A target gas sensor assembly, comprising: a sensor body; a first sensor cover disposed on a first end of the sensor body, the first sensor cover defining a first capillary therethrough; a second sensor cover disposed on a second end of the sensor body, the second sensor cover defining a second capillary therethrough; a first sensing unit disposed within the sensor body at the first end of the sensor body, the first sensing unit comprising a sensing electrode, a reference electrode, and a counter electrode; a first separator positioned between the sensing electrode and the reference electrode; and a second separator positioned between the reference electrode and the counter electrode; characterized by a second sensing unit disposed within the sensor body at the second end of the sensor body, the second sensing unit comprising an auxiliary electrode having a first surface coupled with a surface of the second sensor cover and a second surface immersed within an electrolyte, wherein electrodes (216, 218, 220, 222) are positioned in a stacked arrangement between the first sensor cover and the second sensor cover in the order of the sensing electrode, the reference electrode, the counter electrode, and the auxiliary electrode; and a filter, mounted in a cavity defined by the second sensor cover and disposed on the second capillary, and defined by a material reactive to a target gas, wherein the filter is configured to prevent an inflow of the target gas through the second capillary. a sensor body; a first sensor cover disposed on a first end of the sensor body, the first sensor cover defining a first capillary therethrough; a second sensor cover disposed on a second end of the sensor body, the second sensor cover defining a second capillary therethrough; a first sensing unit disposed within the sensor body at the first end of the sensor body, the first sensing unit comprising a sensing electrode, a reference electrode, and a counter electrode; a first separator positioned between the sensing electrode and the reference electrode; and a second separator positioned between the reference electrode and the counter electrode; a second sensing unit disposed within the sensor body at the second end of the sensor body, the second sensing unit comprising an auxiliary electrode having a first surface coupled with a surface of the second sensor cover and a second surface immersed within an electrolyte, wherein electrodes (216, 218, 220, 222) are positioned in a stacked arrangement between the first sensor cover and the second sensor cover in the order of the sensing electrode, the reference electrode, the counter electrode, and the auxiliary electrode; and a filter, mounted in a cavity defined by the second sensor cover and disposed on the second capillary, and defined by a material reactive to a target gas, wherein the filter is configured to prevent an inflow of the target gas through the second capillary.
(amended) Air intake system for an internal combustion engine of a vehicle, comprising an intake duct and a bypass duct, wherein the bypass duct is led out from the intake duct downstream a compressor and a boost air cooler and upstream a throttle in a spark-ignition SI engine or upstream a pressure sensor in a compression-ignition CI engine and connected back to the intake duct upstream the compressor, and wherein in the bypass duct a circulation valve is provided and connected by wire or wireless connection to a digital computing and controlling system, as the circulation valve, an exhaust gas recirculation EGR valve is used which exhaust gas recirculation EGR valve originally is installed on the conduit connecting an the exhaust gas outlet duct to the air intake duct wherein the exhaust gas outlet duct of an exhaust manifold of the exhaust gas towards the EGR valve is closed, and wherein the exhaust gas input to the EGR valve is connected to a pipe tee located in the air intake duct and further wherein the digital computing and controlling system is constituted by an electronic control unit ECU of the vehicle, which electronic control unit ECU of the vehicle is equipped with a software and settings of the threshold values of the circulation valve, which are the same as those for the operating mode of the exhaust gas recirculation EGR valve that originally is installed on the conduit connecting the exhaust gas outlet duct to the air intake duct.
A method performed by a communications controller, the method comprising: • assigning (step 600), to each user equipment, UE, of a plurality of UEs one or more code domain elements, CDE, separated in the code domain, the one or more CDEs being associated with resources of a transmission zone, the plurality of UEs being served by the communications controller and operating in the transmission zone and having a transmission available; and • transmitting (step 700) downlink data to the UEs, wherein the transmission of the downlink data is performed with a power offset between the CDEs, such that a blind mechanism can be used by the UE to determine a power offset pattern for blind detection purposes, without utilizing dynamic control signaling of the assigned CDEs. • assigning (step 600), to each user equipment, UE, of a plurality of UEs one or more code domain elements, CDE, separated in the code domain, the one or more CDEs being associated with resources of a transmission zone, the plurality of UEs being served by the communications controller and operating in the transmission zone and having a transmission available; and • transmitting (step 700) downlink data to the UEs, wherein the transmission of the downlink data is performed with a power offset between the CDEs, such that a blind mechanism can be used by the UE to determine a power offset pattern for blind detection purposes, without utilizing dynamic control signaling of the assigned CDEs.
A device for displaying a real image on a glazing unit of a passenger compartment or a facade, said device comprising: - a source of monochromatic, transverse magnetic polarized laser radiation of wavelength comprised between 380 and 410 nm and in particular between 395 and 410 nm; and - said glazing unit, at least one portion of which comprises a luminophore that absorbs said radiation in order to reemit light in the visible range and display the image, said radiation source being oriented toward a portion of said glazing unit and scanning said portion so as to make a mean angle θ to the normal to said glazing unit, in which said glazing unit is equipped on its face exposed to said source with an antireflection coating consisting of a stack of two layers, namely, starting from the glazing function substrate: - a first layer made of a material based on zinc oxide, tin oxide, silicon nitride, a zinc tin oxide or a zirconium silicon oxide, this first layer having a thickness Ep 1; and - a second layer made of a material based on silicon oxide, optionally furthermore comprising carbon and/or nitrogen and/or aluminum, this second layer having a thickness Ep 2, and in that the respective geometric thicknesses Ep 1 and Ep 2 of said layers are substantially equal to: - for the first layer: Ep 1 = 26 + 0.07 θ − 0.007 θ 2 - for the second layer: Ep 2 = 83 − 0.1 θ + 0.01 θ 2 - a source of monochromatic, transverse magnetic polarized laser radiation of wavelength comprised between 380 and 410 nm and in particular between 395 and 410 nm; and - said glazing unit, at least one portion of which comprises a luminophore that absorbs said radiation in order to reemit light in the visible range and display the image, - a first layer made of a material based on zinc oxide, tin oxide, silicon nitride, a zinc tin oxide or a zirconium silicon oxide, this first layer having a thickness Ep 1; and - a second layer made of a material based on silicon oxide, optionally furthermore comprising carbon and/or nitrogen and/or aluminum, this second layer having a thickness Ep 2, - for the first layer: Ep 1 = 26 + 0.07 θ − 0.007 θ 2 - for the second layer: Ep 2 = 83 − 0.1 θ + 0.01 θ 2
A guard rail having noise-reducing measures and including a plurality of substantially vertical posts supporting a longitudinal guard rail beam, plate-shaped noise-reducing modules being attached to the supporting, substantially vertical posts, characterised in that the guard rail beam is perforated thus allowing the sound to pass into the noise-reducing modules at the rear, a considerable part of the guard rail beam being provided with perforations so that the acoustic qualities of the beam ensure that the sound passes into the noise-reducing modules at the rear instead of being reflected and in that the guard rail further includes a top plate for reflecting noise back to the noise-reducing modules, which noise without said top plate would escape between the noise-reducing modules and the guard rail beam, wherein the guard rail beam is connected to the top plate.
A device comprising: a circuit board with individual circuit board fingers and slots between adjacent individual circuit board fingers, wherein the circuit board has contact pads located on the individual circuit board fingers of the circuit board, such that there are distal and proximal portions of the circuit board fingers onto which the contact pads do not extend, wherein each individual circuit board finger has a respective contact pad located between a distal portion and a proximal portion of an individual circuit board finger; and a connector comprising ribs alternating with contact tails, the connector being configured to engage the circuit board such that each of the contact tails engages a respective one of the contact pads (20, 22) and each of the ribs enters into a respective slot between adjacent circuit board fingers. a circuit board with individual circuit board fingers and slots between adjacent individual circuit board fingers, wherein the circuit board has contact pads located on the individual circuit board fingers of the circuit board, such that there are distal and proximal portions of the circuit board fingers onto which the contact pads do not extend, wherein each individual circuit board finger has a respective contact pad located between a distal portion and a proximal portion of an individual circuit board finger; and a connector comprising ribs alternating with contact tails, the connector being configured to engage the circuit board such that each of the contact tails engages a respective one of the contact pads (20, 22) and each of the ribs enters into a respective slot between adjacent circuit board fingers.
Method for producing an electrical switching contact arrangement for a vacuum circuit breaker, comprising two electrical contact pieces (4, 5) which can be contact-connected to one another, wherein the method comprises at least the following steps: a) providing two electrical contact pieces (4, 5) made of copper or a copper alloy; b) coating in each case at least one side of the electrical contact pieces (4, 5) with aluminum or an aluminum alloy, the coating of the contact pieces (4, 5) taking place by means of a cold gas spraying method and at least one coated side being located opposite the contact side of the two contact pieces; c) welding each of the sides of the contact pieces (4, 5) coated with aluminum in method step b) to a current transfer contact (6, 7); d) arranging the units consisting of contact piece (4, 5) and current transfer contact (6, 7) obtained in method step b) inside the vacuum circuit breaker. a) providing two electrical contact pieces (4, 5) made of copper or a copper alloy; b) coating in each case at least one side of the electrical contact pieces (4, 5) with aluminum or an aluminum alloy, the coating of the contact pieces (4, 5) taking place by means of a cold gas spraying method and at least one coated side being located opposite the contact side of the two contact pieces; c) welding each of the sides of the contact pieces (4, 5) coated with aluminum in method step b) to a current transfer contact (6, 7); d) arranging the units consisting of contact piece (4, 5) and current transfer contact (6, 7) obtained in method step b) inside the vacuum circuit breaker.
A cold-water soluble, substantially random copolymer of vinyl alcohol ("VOH") and alkyl acrylate ("AA") prepared by copolymerizing vinyl acetate monomer ("VAM") and AA, which copolymer exhibits a characteristic cold water film dissolution time of less than 3 minutes, wherein the copolymer is substantially free of compositional drift as evidenced by a single distinct peak within a two minute interval in a gradient elution chromatographic analysis.
A method of additive manufacturing a workpiece with a directionally solidified microstructure, the method comprising the steps of: providing a seed for propagating grain microstructure growth; covering the seed with a plurality of layers of a powder bed of a material capable of grain structure growth; heating a build surface of the seed or the slice to a predetermined temperature being one hundred degrees Fahrenheit (38 degrees Celsius) below melting temperature with a heating source and before covering the seed or the slice with the next successive layer; melting at least in-part each successive layer of the plurality of layers utilizing an energy gun, wherein the seed and each slice includes the build surface and the step of melting each successive layer includes melting a meltback region of the build surface; controlling a solidification rate of each melted successive layer utilizing a cooling source located below the layer, wherein the cooling source has cooling channels in the seed for flowing a coolant; controlling a thermal gradient across each successive layer at least in part by a heating source disposed above the powder bed; forming a solidified slice of the workpiece and such that a grain structure of the seed propagates through the solidified slice; and proceeding to the next successive layer, wherein the workpiece is a turbine blade, characterised in that the seed is a cast manufactured fir tree of the turbine blade and the cooling source utilizes cooling channels in the fir tree. providing a seed for propagating grain microstructure growth; covering the seed with a plurality of layers of a powder bed of a material capable of grain structure growth; heating a build surface of the seed or the slice to a predetermined temperature being one hundred degrees Fahrenheit (38 degrees Celsius) below melting temperature with a heating source and before covering the seed or the slice with the next successive layer; melting at least in-part each successive layer of the plurality of layers utilizing an energy gun, wherein the seed and each slice includes the build surface and the step of melting each successive layer includes melting a meltback region of the build surface; controlling a solidification rate of each melted successive layer utilizing a cooling source located below the layer, wherein the cooling source has cooling channels in the seed for flowing a coolant; controlling a thermal gradient across each successive layer at least in part by a heating source disposed above the powder bed; forming a solidified slice of the workpiece and such that a grain structure of the seed propagates through the solidified slice; and proceeding to the next successive layer,
A catheter comprising: an elongate catheter body configured for insertion into a body lumen of a subject, the catheter body having opposite distal and proximal ends, a longitudinal axis (LA 1) extending between the distal and proximal ends, and an interior passage extending along the longitudinal axis (LAi); and a rotatable cutter having a proximal end portion, a distal end portion, and a longitudinal axis (LA 2) extending between the proximal and distal end portions, the rotatable cutter being located generally at the distal end of the catheter body for rotation generally about the longitudinal axis (LA 2) of the rotatable cutter, the rotatable cutter further including, an eccentric opening in the distal end portion of the rotatable cutter defining an angled cutting edge for cutting tissue from a wall of the body lumen, a center of the eccentric opening being offset from the longitudinal axis (LA 2) of the rotatable cutter, and a cavity extending from the eccentric opening through the rotatable cutter from the distal end portion to the proximal end portion to allow tissue cut by the rotatable cutter to pass through the rotatable cutter into the interior passage of the catheter body for removal from the body lumen, the catheter characterized in that the cavity extends transversely through the rotatable cutter. an elongate catheter body configured for insertion into a body lumen of a subject, the catheter body having opposite distal and proximal ends, a longitudinal axis (LA 1) extending between the distal and proximal ends, and an interior passage extending along the longitudinal axis (LAi); and a rotatable cutter having a proximal end portion, a distal end portion, and a longitudinal axis (LA 2) extending between the proximal and distal end portions, the rotatable cutter being located generally at the distal end of the catheter body for rotation generally about the longitudinal axis (LA 2) of the rotatable cutter, the rotatable cutter further including, an eccentric opening in the distal end portion of the rotatable cutter defining an angled cutting edge for cutting tissue from a wall of the body lumen, a center of the eccentric opening being offset from the longitudinal axis (LA 2) of the rotatable cutter, and a cavity extending from the eccentric opening through the rotatable cutter from the distal end portion to the proximal end portion to allow tissue cut by the rotatable cutter to pass through the rotatable cutter into the interior passage of the catheter body for removal from the body lumen, an eccentric opening in the distal end portion of the rotatable cutter defining an angled cutting edge for cutting tissue from a wall of the body lumen, a center of the eccentric opening being offset from the longitudinal axis (LA 2) of the rotatable cutter, and a cavity extending from the eccentric opening through the rotatable cutter from the distal end portion to the proximal end portion to allow tissue cut by the rotatable cutter to pass through the rotatable cutter into the interior passage of the catheter body for removal from the body lumen, the catheter characterized in that the cavity extends transversely through the rotatable cutter.
An apparatus to facilitate processing a sparse matrix for arbitrary graph data, comprising: a graphics processing unit hosting a hardware accelerator (2710, 2250, 2450), the hardware accelerator (2710, 2250, 2450) including: a data management unit, DMU, (2715, 2260, 2460) having a scheduler (2262, 2462) configured to schedule matrix operations, an active circuitry (2264, 2464) configured to track input operands, and a skip circuitry (2266, 2466) configured to track unimportant input operands to be skipped by the scheduler (2262, 2462), wherein the unimportant input operands have zero values; and processing circuitry (2270, 2470) coupled to the DMU (2715, 2260, 2460), the processing circuitry (2270, 2470) comprising a plurality of processing elements (2271, 2471) including circuitry configured to read input operands, and a multiplication unit configured to multiply two or more input operands for the arbitrary graph data, wherein the scheduler (2262, 2462) is configured to schedule non-zero operands at the multiplication unit and skip the unimportant input operands that are detected by the skip circuitry (2266, 2466). a data management unit, DMU, (2715, 2260, 2460) having a scheduler (2262, 2462) configured to schedule matrix operations, an active circuitry (2264, 2464) configured to track input operands, and a skip circuitry (2266, 2466) configured to track unimportant input operands to be skipped by the scheduler (2262, 2462), wherein the unimportant input operands have zero values; and a scheduler (2262, 2462) configured to schedule matrix operations, an active circuitry (2264, 2464) configured to track input operands, and a skip circuitry (2266, 2466) configured to track unimportant input operands to be skipped by the scheduler (2262, 2462), wherein the unimportant input operands have zero values; and processing circuitry (2270, 2470) coupled to the DMU (2715, 2260, 2460), the processing circuitry (2270, 2470) comprising a plurality of processing elements (2271, 2471) including circuitry configured to read input operands, and a multiplication unit configured to multiply two or more input operands for the arbitrary graph data, wherein the scheduler (2262, 2462) is configured to schedule non-zero operands at the multiplication unit and skip the unimportant input operands that are detected by the skip circuitry (2266, 2466). a plurality of processing elements (2271, 2471) including circuitry configured to read input operands, and a multiplication unit configured to multiply two or more input operands for the arbitrary graph data, wherein the scheduler (2262, 2462) is configured to schedule non-zero operands at the multiplication unit and skip the unimportant input operands that are detected by the skip circuitry (2266, 2466).
An energy-saving control method for a wireless network, characterized in that the method comprises: setting, by a network manager, energy-saving control parameters, and sending the parameters to a network element participating in energy-saving control; after receiving the energy-saving control parameters, comparing, by the network element, a cell performance index value of a base station controlled by the network element itself with a cell performance index threshold value contained in the energy-saving control parameters periodically, and reporting a message to the network manager when the cell performance index value of the base station is beyond the cell performance index threshold value; and after receiving the message, constituting, by the network manager, an energy-saving strategy and notifying the network element to perform energy-saving operation; wherein a cell performance index of the network element is selected according to a type of services born by the network element itself of a GSM network or 3rd generation network or a long term evolution network; wherein the constituting an energy-saving strategy comprises: according to coverage of and a geographic location of the base station of which the cell performance index value is beyond the cell performance index threshold value in the message, acquiring coverage, a cell performance index value and an energy-saving state of a surrounding base station of the base station; and constituting the energy-saving strategy according to the acquired information and the cell performance index value in the message; wherein the cell performance index value of the base station being beyond the cell performance index threshold value refers that: the cell performance index value of the base station is lower than a lower limit of the threshold value; the cell performance index value of the base station is greater than an upper limit of the threshold value, and the base station of which the cell performance index value is beyond the cell performance index threshold value is in an non-energy saving state; the cell performance index value of the base station is greater than an upper limit of the threshold value, and the base station of which the cell performance index value is beyond the cell performance index threshold value is in an energy-saving compensation state.