mhurhangee/ep-ind-claims huggingface dataset:
A microprocessor, comprising: a plurality of processing cores (102A, 102B,...102N), wherein each of the plurality of processing cores (102A, 102B,...102N) executes microcode and comprises hardware to patch the microcode; wherein a first core of the plurality of processing cores (102A, 102B,...102N) is configured to: encounter an instruction that instructs the first core to apply a microcode patch; and in response to encountering the instruction: inform each core of the other of the plurality of processing cores (102A, 102B,...102N) of the microcode patch; and apply the microcode patch to the hardware of the first core; and wherein each core of the plurality of processing cores (102A, 102B,...102N) other than the first core is configured to apply the microcode patch to the hardware of the core, in response to being informed by the first core; wherein none of the plurality of processing cores (102A, 102B,...102N) executes a microcode instruction other than microcode instructions that apply the microcode patch while any of the plurality of processing cores (102A, 102B,...102N) is applying the microcode patch. a plurality of processing cores (102A, 102B,...102N), wherein each of the plurality of processing cores (102A, 102B,...102N) executes microcode and comprises hardware to patch the microcode; wherein a first core of the plurality of processing cores (102A, 102B,...102N) is configured to: encounter an instruction that instructs the first core to apply a microcode patch; and in response to encountering the instruction: inform each core of the other of the plurality of processing cores (102A, 102B,...102N) of the microcode patch; and apply the microcode patch to the hardware of the first core; and encounter an instruction that instructs the first core to apply a microcode patch; and in response to encountering the instruction: inform each core of the other of the plurality of processing cores (102A, 102B,...102N) of the microcode patch; and apply the microcode patch to the hardware of the first core; and inform each core of the other of the plurality of processing cores (102A, 102B,...102N) of the microcode patch; and apply the microcode patch to the hardware of the first core; and wherein each core of the plurality of processing cores (102A, 102B,...102N) other than the first core is configured to apply the microcode patch to the hardware of the core, in response to being informed by the first core; wherein none of the plurality of processing cores (102A, 102B,...102N) executes a microcode instruction other than microcode instructions that apply the microcode patch while any of the plurality of processing cores (102A, 102B,...102N) is applying the microcode patch.
An exhaust structure for a vehicle comprising: an engine; an exhaust device of the engine; and a rear cowl adapted for covering a vehicle rear portion, said exhaust device including an exhaust pipe and a muffler connected to a rear portion of the exhaust pipe; the muffler including a plurality of expansion chambers (C1, C2) partitioned by a partition, first and second connecting pipes (67, 68) connecting the plurality of expansion chambers (C1, C2), and a tail pipe configured to discharge exhaust gas from said muffler; said muffler being covered by said rear cowl, wherein: outlines of said muffler and said rear cowl are each formed such that the lateral width decreases toward the vehicle rear; characterized in that said tail pipe and said first and second connecting pipes (67, 68) are provided so as to penetrate said partition; and positions where said tail pipe and said first and second connecting pipes (67, 68) penetrate said partition are vertically offset from each other. an engine; an exhaust device of the engine; and a rear cowl adapted for covering a vehicle rear portion, said exhaust device including an exhaust pipe and a muffler connected to a rear portion of the exhaust pipe; the muffler including a plurality of expansion chambers (C1, C2) partitioned by a partition, first and second connecting pipes (67, 68) connecting the plurality of expansion chambers (C1, C2), and a tail pipe configured to discharge exhaust gas from said muffler; said muffler being covered by said rear cowl, wherein: outlines of said muffler and said rear cowl are each formed such that the lateral width decreases toward the vehicle rear; characterized in that said tail pipe and said first and second connecting pipes (67, 68) are provided so as to penetrate said partition; and positions where said tail pipe and said first and second connecting pipes (67, 68) penetrate said partition are vertically offset from each other. outlines of said muffler and said rear cowl are each formed such that the lateral width decreases toward the vehicle rear; characterized in that said tail pipe and said first and second connecting pipes (67, 68) are provided so as to penetrate said partition; and positions where said tail pipe and said first and second connecting pipes (67, 68) penetrate said partition are vertically offset from each other.
An electrical plug-type connector, comprising two plug parts which are connected to each other and in which one respective cable is held which is stripped of insulation at the end side, wherein at least one or several markings are provided on the outside of at least one plug part at a distance which corresponds to the stripping length of the insulation of the cable, characterized in that a marking is formed by a limit stop which is integrally attached in one of several axially extending gripping grooves which are arranged over the circumference of the jacket surface.
A steam plant including: a steam generator for evaporating water supplied through a water feed passage and generating steam; a steam turbine to be rotated by the steam generated in the steam generator, for generating motive power; a steam condenser for returning the steam passing through the steam turbine to the water feed passage as condensate, and a water hydraulic system comprising: a water hydraulic pump to be driven by rotation of the steam turbine, for suctioning the condensate returned from the steam condenser through a suction passage and discharging the condensate; and a water-hydraulically driven actuator to be actuated by the pressurized water discharged from the water hydraulic pump, for driving an auxiliary machine of the steam plant; characterized by a heat pump for moving heat of the water flowing through the suction passage to the water flowing through the water feed passage. a steam generator for evaporating water supplied through a water feed passage and generating steam; a steam turbine to be rotated by the steam generated in the steam generator, for generating motive power; a steam condenser for returning the steam passing through the steam turbine to the water feed passage as condensate, and a water hydraulic system comprising: a water hydraulic pump to be driven by rotation of the steam turbine, for suctioning the condensate returned from the steam condenser through a suction passage and discharging the condensate; and a water-hydraulically driven actuator to be actuated by the pressurized water discharged from the water hydraulic pump, for driving an auxiliary machine of the steam plant; characterized by a heat pump for moving heat of the water flowing through the suction passage to the water flowing through the water feed passage. a water hydraulic pump to be driven by rotation of the steam turbine, for suctioning the condensate returned from the steam condenser through a suction passage and discharging the condensate; and a water-hydraulically driven actuator to be actuated by the pressurized water discharged from the water hydraulic pump, for driving an auxiliary machine of the steam plant; characterized by a heat pump for moving heat of the water flowing through the suction passage to the water flowing through the water feed passage.
A watch component comprising: a base member including a first surface and a second surface opposite the first surface, the base member being mainly composed of silicon; and a light reflecting layer provided at the first surface of the base member, the light reflecting layer having a three-layer structure in which a first silicon oxide layer, a silicon layer, and a second silicon oxide layer are layered in this order. a base member including a first surface and a second surface opposite the first surface, the base member being mainly composed of silicon; and a light reflecting layer provided at the first surface of the base member, the light reflecting layer having a three-layer structure in which a first silicon oxide layer, a silicon layer, and a second silicon oxide layer are layered in this order.
A composition comprising adherent CD200 + placental stem cells for use in treating a bone defect in a subject, wherein said composition is formulated to be implantable or injectable.
An elevator control device, comprising: a control panel, which comprises a plurality of buttons (1, 2, 3), each of the plurality of buttons being capable of sensing the approaching of an object in a non-contact manner; and a processor, which is connected to the control panel to receive signals sent by the plurality of buttons (1, 2, 3) when the approaching of an object is sensed; characterized in that the processor is configured to, when receiving signals sent by at least two adjacent buttons of the plurality of buttons within a defined time period, not execute an operation corresponding to the signals. a control panel, which comprises a plurality of buttons (1, 2, 3), each of the plurality of buttons being capable of sensing the approaching of an object in a non-contact manner; and a processor, which is connected to the control panel to receive signals sent by the plurality of buttons (1, 2, 3) when the approaching of an object is sensed; characterized in that the processor is configured to, when receiving signals sent by at least two adjacent buttons of the plurality of buttons within a defined time period, not execute an operation corresponding to the signals.
A composite hydrophilic porous membrane comprising a porous fluoropolymer support and a coating comprising a copolymer of formula or: wherein the copolymer of formula or is independently a random or block copolymer, Rf is a perfluoro-substituted group, whereas Rh is a hydrophilic group or chlorine, Ra is methyl or ethyl, m and n are independently from 10 to 1000, X is an alkyl group, and Y is a reactive functional group selected from an amino group, quaternary ammonium group, hydroxyl, acryloyl, and methacryloyl, wherein the coating is optionally crosslinked.
Fitting (3, 3') for connecting to a tubular element (5, 5') having an axial first end section (9, 9', 109, 209, 309, 409, 509, 609, 809), the fitting comprising at least one first connection element (21, 21', 121, 521, 621, 721, 821, 921) and at least one first sealing element arranged at least partly in a radially outwardly extending annular recess (17, 17'), wherein the diameter of at least a part of the first connection element (21, 21', 121, 521, 621, 821) can be reduced in a radial direction in order to produce a connection, wherein the first connection element comprises at least one radially inwardly extending first hook element (21, 21', 121, 521, 621, 821) being preformed in the fitting (3, 3'), being formed as an element that runs circumferentially around the whole periphery of the fitting such that the hook element defines said axial end section of the fitting, and being configured to be connected in force-fit and form- fit manner to at least one first crimp (7, 7', 107, 207, 507, 607) formed on the outer surface of the tubular element (5, 5', 105, 205, 305, 405, 505, 605, 805) when the diameter of at least a part of the connection element is reduced, and wherein the radially outwardly extending annular recess (17, 17') additionally forms a gripping element for engaging the outer surface of the tubular element and that is axially spaced apart from the first hook element (21, 21', 121, 521, 621, 821).
Sieve, comprising outer bars and inner bars and sieving areas with sieving fabric being formed between the outer bars and the inner bars, characterized in that at least a portion of the outer bars is provided as elastomeric part (5a, 5c) and at least a portion of the inner bars is provided as elastomeric part, wherein said elastomeric parts (5a, 5b, 5c) can be transferred from a first untensioned state into a second tensioned state.
A fastening member, comprising - a foot part (1.1) adapted to attach the fastening member to a support rail; - a supporting element (1.4) attached to the foot part (1.1) at a first end of the supporting element (1.4); - a first locking section (1.10) attached to a second end of the supporting element (1.4), wherein the first locking section (1.10) is at an angle with respect to the supporting element (1.4) and extends towards the foot part (1.1); - a second locking section (1.11) attached to a second end of the supporting element (1.4), wherein the second locking section (1.11) is at an angle with respect to the supporting element (1.4) and extends towards the foot part (1.1) at the side of the supporting element (1.4) opposite to the side on which the first locking section is located; - a protrusion (1.8) in the foot part (1.1) directed in an opposite direction to the supporting element (1.4) and adapted to be positioned in a hole (2.7) of the support rail; and - the foot part (1.1) is further adapted to face a bottom (2.2) of a groove (2.1) of the support rail when attached to the support rail characterized in that - an outer circumference of the foot part (1.1) has two curved sections at diagonally opposite corners (1.13, 1.15) and two angular sections at the other two diagonally opposite corners (1.12, 1.14). - a foot part (1.1) adapted to attach the fastening member to a support rail; - a supporting element (1.4) attached to the foot part (1.1) at a first end of the supporting element (1.4); - a first locking section (1.10) attached to a second end of the supporting element (1.4), wherein the first locking section (1.10) is at an angle with respect to the supporting element (1.4) and extends towards the foot part (1.1); - a second locking section (1.11) attached to a second end of the supporting element (1.4), wherein the second locking section (1.11) is at an angle with respect to the supporting element (1.4) and extends towards the foot part (1.1) at the side of the supporting element (1.4) opposite to the side on which the first locking section is located; - a protrusion (1.8) in the foot part (1.1) directed in an opposite direction to the supporting element (1.4) and adapted to be positioned in a hole (2.7) of the support rail; and - the foot part (1.1) is further adapted to face a bottom (2.2) of a groove (2.1) of the support rail when attached to the support rail characterized in that - an outer circumference of the foot part (1.1) has two curved sections at diagonally opposite corners (1.13, 1.15) and two angular sections at the other two diagonally opposite corners (1.12, 1.14).
A method of performing channel estimation in a wireless communication system, said method comprising: a) extracting pilot reference signals from a received signal based on pilot reference signal positions of a received signal; b) compensating said extracted pilot signals by an expected conjugate of the pilot reference signal, to get z = y x, wherein y denotes an extracted pilot reference signal, x denotes the expected conjugate of the pilot reference signal and z denotes a matrix representing compensated pilot reference signals; c) deriving estimated tap values for a channel filter by performing autocorrelation based on at least one of extracted and compensated pilot signals with different predetermined lag values in the time domain and extracted and compensated pilot signals with different predetermined lag values in the frequency domain, wherein the lag values define the lag of the autocorrelation sequence to itself; d) comparing said estimated tap values with pre-calculated tap values by using a comparison metric; and e) selecting optimal ones of said estimated tap values based on the result of said comparison metric. a) extracting pilot reference signals from a received signal based on pilot reference signal positions of a received signal; b) compensating said extracted pilot signals by an expected conjugate of the pilot reference signal, to get z = y x, wherein y denotes an extracted pilot reference signal, x denotes the expected conjugate of the pilot reference signal and z denotes a matrix representing compensated pilot reference signals; c) deriving estimated tap values for a channel filter by performing autocorrelation based on at least one of extracted and compensated pilot signals with different predetermined lag values in the time domain and extracted and compensated pilot signals with different predetermined lag values in the frequency domain, wherein the lag values define the lag of the autocorrelation sequence to itself; d) comparing said estimated tap values with pre-calculated tap values by using a comparison metric; and e) selecting optimal ones of said estimated tap values based on the result of said comparison metric.
Vehicle door for armoured vehicles, having a braking apparatus which brakes a vehicle door movement and the braking action of which on the vehicle door movement is reduced in the last movement section of a movement of the vehicle door into the closed position, and having a brake release apparatus (4, 7, 9, 16, 18, 19, 31) which automatically releases the braking apparatus in the last movement section, characterized in that the brake release apparatus (4, 7, 9, 16, 18, 19, 31) comprises a switching element and a telescopic linkage, the telescopic linkage being connected to the switching element in order to articulate the switching element and being capable of being connected to the vehicle, the length of the telescopic linkage decreasing in the case of a closing movement of the vehicle door, with the result that the switching element which is connected to the vehicle door is moved, and the switching element acting in the last movement section on a release element for releasing the braking apparatus.
A half thrust bearing having a semi-annular shape, the half thrust bearing having a sliding surface for receiving an axial force (f) and a back surface opposite to the sliding surface, the half thrust bearing comprising a substrate and a resin coating layer coated on the substrate, a surface of the resin coating layer being the sliding surface, the resin coating layer having a thickness, characterized in that when the half thrust bearing is viewed along a circumferential direction of the half thrust bearing, the sliding surface of the half thrust bearing has a single convex contour protruding at a center portion in a circumferential direction of the half thrust bearing, and wherein the thickness of the resin coating layer is maximum at the center portion and is reduced toward circumferential ends of the half thrust bearing. when the half thrust bearing is viewed along a circumferential direction of the half thrust bearing, the sliding surface of the half thrust bearing has a single convex contour protruding at a center portion in a circumferential direction of the half thrust bearing, and wherein the thickness of the resin coating layer is maximum at the center portion and is reduced toward circumferential ends of the half thrust bearing.
A friction material composition comprising: a fiber base material in an amount of 5 mass% to 40 mass%; a binder in an amount of 5 mass% to 20 mass%; an alkali metal salt in an amount of 5 mass% to 30 mass%; an inorganic filler other than the alkali metal salt in an amount of 1 mass% to 60 mass%; an organic filler in an amount of 1 mass% to 15 mass%; an abrasive in an amount of 5 mass% to 20 mass%; and a lubricant in an amount of 1 mass% to 20 mass%; wherein the alkali metal salt is spherical and porous and has an average particle diameter of 20 μm to 240 μm, wherein the alkali metal salt is a potassium titanate represented by formula: K 2 Ti n O 2n+1, wherein n in said formula is an integer of 2 to 8, wherein the alkali metal salt comprises a sintered body in which a plurality of particles having a dimension of 100 nm to 500 nm in a long axis direction and a short axis direction has been fused. a fiber base material in an amount of 5 mass% to 40 mass%; a binder in an amount of 5 mass% to 20 mass%; an alkali metal salt in an amount of 5 mass% to 30 mass%; an inorganic filler other than the alkali metal salt in an amount of 1 mass% to 60 mass%; an organic filler in an amount of 1 mass% to 15 mass%; an abrasive in an amount of 5 mass% to 20 mass%; and a lubricant in an amount of 1 mass% to 20 mass%; wherein the alkali metal salt is spherical and porous and has an average particle diameter of 20 μm to 240 μm, wherein the alkali metal salt is a potassium titanate represented by formula: K 2 Ti n O 2n+1, wherein n in said formula is an integer of 2 to 8, wherein the alkali metal salt comprises a sintered body in which a plurality of particles having a dimension of 100 nm to 500 nm in a long axis direction and a short axis direction has been fused.
An apparatus comprising: a first circuit configured and arranged to generate a first clock signal with a frequency spectrum having a first frequency range; a second circuit coupled to the first circuit and configured and arranged to generate a second clock signal from the first clock signal by spreading the frequency spectrum of the first clock to have a second frequency range that is wider than the first frequency range; a third circuit configured and arranged to provide a regulated voltage at a supply node by coupling a power source to the supply node in a first mode of operation, uncoupling the power source from the supply node in a second mode of operation, and switching between the first and second modes of operation at a plurality of frequencies derived from the frequency spectrum of the second clock signal; and a fourth circuit configured and arranged to regulate current in a circuit path, from the supply node and passing through a load circuit coupled to the current regulator, according to the first clock signal. a first circuit configured and arranged to generate a first clock signal with a frequency spectrum having a first frequency range; a second circuit coupled to the first circuit and configured and arranged to generate a second clock signal from the first clock signal by spreading the frequency spectrum of the first clock to have a second frequency range that is wider than the first frequency range; a third circuit configured and arranged to provide a regulated voltage at a supply node by coupling a power source to the supply node in a first mode of operation, uncoupling the power source from the supply node in a second mode of operation, and switching between the first and second modes of operation at a plurality of frequencies derived from the frequency spectrum of the second clock signal; and a fourth circuit configured and arranged to regulate current in a circuit path, from the supply node and passing through a load circuit coupled to the current regulator, according to the first clock signal.