mhurhangee/ep-ind-claims huggingface dataset:
A scheduling method for a data processing system comprising a plurality of physical CPUs, and one or more virtual machines each being assigned one or more virtual CPUs, the method comprising: a first scheduling step in which one of said virtual machines is elected to run on one of said physical CPUs; and a second scheduling step performed on said one of said physical CPUs in which at least one of the virtual CPUs assigned to the elected virtual machine is selected to run on said one of said physical CPUs, characterised by: assigning a scheduling priority P to each of said virtual CPUs in accordance with a waiting time Tw associated with each of said virtual CPUs, wherein said waiting time reflects the time for transition from ready to running state; and selecting the virtual CPU associated with the highest scheduling priority P calculated in accordance with the following formula: P = Tw + Bm + Bl wherein Bm = predetermined interrupt masking bonus Bl = predetermined locality bonus, wherein Bm is determined to promote virtual CPUs with masked interrupts for selection in the second scheduling step, and wherein Bl is determined to promote local virtual CPUs already selected to run on said physical CPU. a first scheduling step in which one of said virtual machines is elected to run on one of said physical CPUs; and a second scheduling step performed on said one of said physical CPUs in which at least one of the virtual CPUs assigned to the elected virtual machine is selected to run on said one of said physical CPUs, characterised by: assigning a scheduling priority P to each of said virtual CPUs in accordance with a waiting time Tw associated with each of said virtual CPUs, wherein said waiting time reflects the time for transition from ready to running state; and selecting the virtual CPU associated with the highest scheduling priority P calculated in accordance with the following formula: P = Tw + Bm + Bl wherein Bm = predetermined interrupt masking bonus Bl = predetermined locality bonus, wherein Bm is determined to promote virtual CPUs with masked interrupts for selection in the second scheduling step, and wherein Bl is determined to promote local virtual CPUs already selected to run on said physical CPU. assigning a scheduling priority P to each of said virtual CPUs in accordance with a waiting time Tw associated with each of said virtual CPUs, wherein said waiting time reflects the time for transition from ready to running state; and selecting the virtual CPU associated with the highest scheduling priority P calculated in accordance with the following formula: P = Tw + Bm + Bl wherein Bm = predetermined interrupt masking bonus Bl = predetermined locality bonus, Bm = predetermined interrupt masking bonus Bl = predetermined locality bonus, wherein Bm is determined to promote virtual CPUs with masked interrupts for selection in the second scheduling step, and wherein Bl is determined to promote local virtual CPUs already selected to run on said physical CPU.
A communication method for a distributed wireless cell, characterized by the method comprising: A. receiving, by a plurality of remote radio units operating in a same cell, an upstream signaling sent by a mobile terminal and forwarding the upstream signaling to a baseband unit; B. receiving, by the baseband unit, the upstream signaling, analyzing all of the upstream signaling, and synthesizing all of the upstream signaling such that the synthesized signaling corresponds completely to the upstream signaling sent by the mobile terminal, and then transmitting the synthesized upstream signaling to a base station controller; C. receiving and analyzing, by the base station controller, the upstream signaling and transmitting a downstream signaling to the baseband unit; and D. receiving, by the baseband unit, the downstream signaling, analyzing the downstream signaling, and then distributing the analyzed downstream signaling to the plurality of remote radio units; the plurality of remote radio units forwarding the downstream signaling to the mobile terminal; wherein the plurality of remote radio units are connected in a cascading manner to form a chain network coverage area. A. receiving, by a plurality of remote radio units operating in a same cell, an upstream signaling sent by a mobile terminal and forwarding the upstream signaling to a baseband unit; B. receiving, by the baseband unit, the upstream signaling, analyzing all of the upstream signaling, and synthesizing all of the upstream signaling such that the synthesized signaling corresponds completely to the upstream signaling sent by the mobile terminal, and then transmitting the synthesized upstream signaling to a base station controller; C. receiving and analyzing, by the base station controller, the upstream signaling and transmitting a downstream signaling to the baseband unit; and D. receiving, by the baseband unit, the downstream signaling, analyzing the downstream signaling, and then distributing the analyzed downstream signaling to the plurality of remote radio units; the plurality of remote radio units forwarding the downstream signaling to the mobile terminal;
A device for authenticating a person's authorization to use a vehicle - with a control unit on the vehicle, which is coupled to a plurality of nodes (4.1 to 4.n), each designed as a Bluetooth interface and which can be arranged or are arranged at a distance from one another on and/or in the vehicle, - with a portable mobile part with a Bluetooth interface, which is designed to establish a Bluetooth radio link with exactly one of the nodes (4.1 to 4.n) at any time, wherein - the mobile part and the control unit each additionally comprise an ultra-wideband interface (7, 8) for setting up an ultra-wideband short-range radio link, and - the control unit is designed - to authenticate the mobile part as authorized when an authorization transmitted by the mobile part via the Bluetooth radio link is detected, - to determine a position of the mobile part on the basis of a communication carried out with the mobile part via the ultra-wideband short-range radio link, characterized in that the control unit is also designed, - to determine connection qualities of possible Bluetooth radio links between the mobile part and the nodes (4.1 to 4.n) depending on the position of the mobile part and - to deactivate the node (4.1 to 4.n) currently activated for this Bluetooth radio link and to activate the node (4.1 to 4.n) intended for establishing the Bluetooth radio link with the higher connection quality if a Bluetooth radio link to one of the nodes (4.1 to 4.n) has a higher connection quality than a Bluetooth radio link currently established to an activated node (4.1 to 4.n). - with a control unit on the vehicle, which is coupled to a plurality of nodes (4.1 to 4.n), each designed as a Bluetooth interface and which can be arranged or are arranged at a distance from one another on and/or in the vehicle, - with a portable mobile part with a Bluetooth interface, which is designed to establish a Bluetooth radio link with exactly one of the nodes (4.1 to 4.n) at any time, wherein - the mobile part and the control unit each additionally comprise an ultra-wideband interface (7, 8) for setting up an ultra-wideband short-range radio link, and - the control unit is designed - to authenticate the mobile part as authorized when an authorization transmitted by the mobile part via the Bluetooth radio link is detected, - to determine a position of the mobile part on the basis of a communication carried out with the mobile part via the ultra-wideband short-range radio link, characterized in that the control unit is also designed, - to determine connection qualities of possible Bluetooth radio links between the mobile part and the nodes (4.1 to 4.n) depending on the position of the mobile part and - to deactivate the node (4.1 to 4.n) currently activated for this Bluetooth radio link and to activate the node (4.1 to 4.n) intended for establishing the Bluetooth radio link with the higher connection quality if a Bluetooth radio link to one of the nodes (4.1 to 4.n) has a higher connection quality than a Bluetooth radio link currently established to an activated node (4.1 to 4.n).
An optical laminate body comprising: a substrate; and an adhesive layer formed on the substrate, wherein the optical laminate body may be suitably used such that a surface thereof on the adhesive layer side is attached to a glass-made light-emitting surface member, a relationship n3 ≥ n2 ≥ n1 is satisfied where n1 is a refractive index of the glass that constitutes the light-emitting surface member, n2 is a refractive index of the adhesive layer, and n3 is a refractive index of the substrate, the adhesive layer is composed of an acrylic adhesive composition containing an acrylic resin, and the acrylic resin is a copolymer of a copolymerizable component containing 40% by weight to 93% by weight of an aromatic ring-containing monomer, and 7% by weight to 60% by weight of a hydroxy group-containing monomer, the weight average molecular weight of the acrylic resin being 200,000 or less.
A machine combination comprising an internal combustion engine and a generator for charging the battery of a hybrid drive, the internal combustion engine having a pair of cylinder-piston units which are enclosed in a common housing, the two pistons (3, 4) of which are in each case drive-connected to a dedicated crankshaft (7, 8) via a connecting rod (5, 6), and the two crankshafts (7, 8) are rotationally connected to one another so as to rotate in opposite directions via in each case one gearwheel (9, 10), characterized in that the drive is transmitted from the crankshafts (7, 8) of the internal combustion engine to the drive shaft of the generator (41, 48) via gearwheels (10, 43, 45) arranged in the same plane, the two cylinder-piston units are arranged in a row with the generator and the machine combination is enclosed in a common housing, with the cylinder head, the crankcase provided for the two crankshafts and the housing of the generator being formed as an integral casting.
Hood frame for a folding roof of a passenger vehicle, comprising front frame links and rear frame links made from extrusion press profiles attached at longitudinal sides of the folding roof, which cooperate in a relatively-movable manner at end regions (26 and 27) turned towards one another with arrangement of pivot bearings which front frame links are connected to a roof cover extending transversal to the vehicle longitudinal direction adjacent to an upper transverse beam of a windscreen frame forming a component of a structure, wherein the roof cover and the frame links (17 and 18) consist of lightweight material, wherein the front frame links are held on the roof cover with arrangement of first screws (29 and 30) and the frame links (17 and 18) are held at the end regions (26 and 27) with interposition of bearing struts (32 and 33) comprising the pivot bearings manufactured separately from the mentioned frame links (17 and 18), wherein retaining brackets are provided between the front frame links and the roof cover, said retaining brackets serving to fasten these frame links to the mentioned roof cover, characterised in that the retaining brackets each comprise an angular profile, which has a straight profile web and a horizontal profile web, wherein the straight profile web supports the associated front frame links, whereas the horizontal profile web supports a fastening expansion of the roof cover.
A sensor device for detecting presence of a leak in a fluid conduit (910, 1010), the sensor device flowing with a fluid within the fluid conduit, the sensor device comprising: an outer capsule that is free flowing within the fluid and provides fluid-tight containment to an interior compartment having an inner frame physically installed therein; at least one acoustic sensor (180, 244) mounted upon a sensor platform and attached to the inner frame within the interior compartment, wherein the at least one acoustic sensor senses acoustic properties of the fluid to detect the presence of the leak, the inner frame providing a conduit for the conductors; and a conductor (130a, 130b) for activating the at least one acoustic sensor to sense the acoustic properties of the fluid and the fluid conduit, wherein the conductor passes from the interior compartment and through to the outer capsule, and wherein the conductor is exposed on an external surface of the outer capsule, to permit signal transfer with the sensor platform via a conduit provided by inner frame. an outer capsule that is free flowing within the fluid and provides fluid-tight containment to an interior compartment having an inner frame physically installed therein; at least one acoustic sensor (180, 244) mounted upon a sensor platform and attached to the inner frame within the interior compartment, wherein the at least one acoustic sensor senses acoustic properties of the fluid to detect the presence of the leak, the inner frame providing a conduit for the conductors; and a conductor (130a, 130b) for activating the at least one acoustic sensor to sense the acoustic properties of the fluid and the fluid conduit, wherein the conductor passes from the interior compartment and through to the outer capsule, and wherein the conductor is exposed on an external surface of the outer capsule, to permit signal transfer with the sensor platform via a conduit provided by inner frame.
Use of a polypropylene composition comprising a heterophasic polypropylene having a xylene cold soluble fraction of ≥ 10.0 wt% and an intrinsic viscosity of the xylene cold soluble fraction of > 2.0 dl/g and a filler with the polypropylene composition having an intrinsic viscosity of of ≥ 3.0 dl/g and a ratio of intrinsic viscosity of / xylene cold soluble fraction of ≥ 0.113 dl/(g*wt%) for the production of at least partially painted articles. a heterophasic polypropylene having a xylene cold soluble fraction of ≥ 10.0 wt% and an intrinsic viscosity of the xylene cold soluble fraction of > 2.0 dl/g and a filler with the polypropylene composition having an intrinsic viscosity of of ≥ 3.0 dl/g and a ratio of intrinsic viscosity of / xylene cold soluble fraction of ≥ 0.113 dl/(g*wt%) for the production of at least partially painted articles.
A service chain management method, wherein the method comprises: receiving (S301, S406), by an ingress delivery node of a service chain, a detection packet for detecting the service chain, wherein the service chain comprises at least one value-added service node, and the detection packet carries status information of each value-added service node; wherein the detection packet is initiated by an egress delivery node of the service chain; sending (S302, S407), by the ingress delivery node, the status information of each value-added service node to a controller; receiving (S302, S408), by the ingress delivery node, a service allocation instruction that is sent by the controller when the controller determines, according to the status information of each value-added service node, that the service chain is in an abnormal running state; and determining (S302, S408), by the ingress delivery node according to the service allocation instruction, that the running state of the service chain is abnormal; wherein the service allocation instruction comprises allocation information of the service chain and allocation information of a redundant service chain of the service chain, and the redundant service chain is determined by the controller according to the status information of each value-added service node. receiving (S301, S406), by an ingress delivery node of a service chain, a detection packet for detecting the service chain, wherein the service chain comprises at least one value-added service node, and the detection packet carries status information of each value-added service node; wherein the detection packet is initiated by an egress delivery node of the service chain; sending (S302, S407), by the ingress delivery node, the status information of each value-added service node to a controller; receiving (S302, S408), by the ingress delivery node, a service allocation instruction that is sent by the controller when the controller determines, according to the status information of each value-added service node, that the service chain is in an abnormal running state; and determining (S302, S408), by the ingress delivery node according to the service allocation instruction, that the running state of the service chain is abnormal; wherein the service allocation instruction comprises allocation information of the service chain and allocation information of a redundant service chain of the service chain, and the redundant service chain is determined by the controller according to the status information of each value-added service node.
Method for the electromagnetic stirring of electrically conductive fluids (2, 21, 22) in the liquid state and/or in the state at the beginning of the solidification of the fluid (2, 21, 22) by using a rotating magnetic field which produces a Lorentz force (F L) in the horizontal plane, characterized in that the direction of rotation (15, 16) of the magnetic field rotating in the horizontal plane is changed in regular time intervals in the form of a period (T P), the frequency of the change in direction of the movement of the magnetic field vector being set in such a way that in the state of the mixing of the liquid fluid (2, 21, 22) a period (T P) between two changes in direction of the magnetic field in a time interval (ΔT PM) is provided as a function of the initial adjustment time (t i.a.) with the condition that 0.5 ⋅ t i. a. < T PM < 1.5 ⋅ t i. a., and that at the beginning of the state of solidification of the fluid (2, 21, 22) a period (T P) is adjusted between two changes in direction of the magnetic field in a time interval (ΔT PE) as a function of the initial adjustment time t i.a. with the condition that 0.8 ⋅ t i. a. < T PE < 4 ⋅ t i. a, the initial adjustment time (t i.a.) being given by the equation t i. a. = C g ⋅ B 0 σω ρ − 1 in which after the rotating magnetic field is switched on in a fluid (2; 21, 22) in a state of rest the double vortex of the meridional secondary flow is formed, and σ is defined as the electrical conductivity, ρ as the density of the fluid (2, 21, 22), ω as a frequency and B 0 as the amplitude of the magnetic field, and C g is defined as a constant for the influence of the size and shape of the volume of the fluid (2, 21, 22).
A multi-mode one-way wrench including: a head made with a chamber and cutouts in communication with the chamber; a toothed wheel rotationally placed in the chamber and formed with teeth; and pawls (41,51) for alternate engagement with the toothed wheel and each pivotally placed in a corresponding one of the cutouts, wherein the pawls include a leading pawl and at least one following pawl, characterized in that the following pawl is formed with a stem; and a switch placed on the head and made with at least one arched groove for receiving and guiding the stem to move the following pawl between a first mode for engagement with the toothed wheel and a second mode kept from the toothed wheel, wherein the cutouts are biased from one another by an angle of 360°×(M+1/L)÷N, wherein L is an integer for representing the number of the cutouts, M is any proper integer, and N is an integer for representing the number of the teeth. a head made with a chamber and cutouts in communication with the chamber; a toothed wheel rotationally placed in the chamber and formed with teeth; and pawls (41,51) for alternate engagement with the toothed wheel and each pivotally placed in a corresponding one of the cutouts, wherein the pawls include a leading pawl and at least one following pawl,
A wind-resistant synthetic cover system for landfills, stockpiles, soil erosion protection, dry ponds, phosphogypsum stacks, environmentally impacted lands, leach pads, ash fills, and similar environmental sites or material stockpiles that require a water-resistant closure system or a plastic rain barrier, wherein the wind-resistant synthetic cover system comprises: a composite of one or more geotextiles that are tufted with synthetic polymeric slender elongate elements and an impermeable geomembrane which is comprised of a polymeric material; wherein the synthetic slender elongate elements have a length ranging between 1.25 cm (0.5 inches) and 10 cm (4 inches); and have a density of between about 0.51 kg/m 2 (about 15 ounces/square yard) and about 4.07 kg/m 2 (about 120 ounces/square yard); and the wind-resistant synthetic cover system has a weight of at least 1.46 kg/m 2 (0.3 lbs/square foot) in the absence of subterranean anchoring and/or ballast system or sand in-fill; such that when the wind-resistant synthetic cover system is exposed to wind, uplift of the wind-resistant synthetic cover system is resisted by the weight of the material of the wind-resistant synthetic cover system itself without the need for subterranean anchoring and/or ballast system or sand in-fill. a composite of one or more geotextiles that are tufted with synthetic polymeric slender elongate elements and an impermeable geomembrane which is comprised of a polymeric material; wherein the synthetic slender elongate elements have a length ranging between 1.25 cm (0.5 inches) and 10 cm (4 inches); and have a density of between about 0.51 kg/m 2 (about 15 ounces/square yard) and about 4.07 kg/m 2 (about 120 ounces/square yard); and the wind-resistant synthetic cover system has a weight of at least 1.46 kg/m 2 (0.3 lbs/square foot) in the absence of subterranean anchoring and/or ballast system or sand in-fill; such that when the wind-resistant synthetic cover system is exposed to wind, uplift of the wind-resistant synthetic cover system is resisted by the weight of the material of the wind-resistant synthetic cover system itself without the need for subterranean anchoring and/or ballast system or sand in-fill.
A method of processing a semiconductor workpiece having a front surface and a back surface, including the steps of: i) placing the back surface of the workpiece on a workpiece support 12 in a chamber 10 so that the front surface of the workpiece faces into the chamber for processing, the chamber 10 having an associated chamber gas pressure, and the back surface is in fluid communication with a back region having an associated back gas pressure; ii) performing a workpiece processing step at a first chamber pressure P c1 and a first back pressure P b1, wherein P c1 and P b1 give rise to a pressure differential, P b1 -P c1, which is maintained so as to avoid a pressure induced loss of contact between the workpiece and the workpiece support 12; and iii) performing a workpiece cooling step at a second chamber pressure P c2 and a second back pressure P b2, wherein P c2 and P b2 are higher than P c1 and P b1, respectively, at least P b2 being sufficiently high to enhance cooling of the workpiece, and wherein P c2 and P b2 give rise to a pressure differential, P b2 -P c2, which is maintained so as to avoid a pressure-induced loss of contact between the workpiece and the workpiece support 12. i) placing the back surface of the workpiece on a workpiece support 12 in a chamber 10 so that the front surface of the workpiece faces into the chamber for processing, the chamber 10 having an associated chamber gas pressure, and the back surface is in fluid communication with a back region having an associated back gas pressure; ii) performing a workpiece processing step at a first chamber pressure P c1 and a first back pressure P b1, wherein P c1 and P b1 give rise to a pressure differential, P b1 -P c1, which is maintained so as to avoid a pressure induced loss of contact between the workpiece and the workpiece support 12; and iii) performing a workpiece cooling step at a second chamber pressure P c2 and a second back pressure P b2, wherein P c2 and P b2 are higher than P c1 and P b1, respectively, at least P b2 being sufficiently high to enhance cooling of the workpiece, and wherein P c2 and P b2 give rise to a pressure differential, P b2 -P c2, which is maintained so as to avoid a pressure-induced loss of contact between the workpiece and the workpiece support 12.