mhurhangee/ep-ind-claims huggingface dataset:
A method for accommodating loss of a torque signal of a gas turbine engine comprising generating a synthesized torque signal when the torque signal is lost, characterised in that the method further comprises: determining an engine deterioration offset while the torque signal of the engine is available, wherein determining the engine deterioration offset comprises determining a difference between an engine rotational speed offset and an actual operating offset, the engine rotational speed offset being determined from a difference between a reference speed of rotation of the engine from a baseline anticipation curve for an actual delivered power of the engine and an actual speed of rotation of the engine, the actual operating offset being determined from a difference between the rotational speed of the engine at a maximum rated power and the corresponding rotational speed of the engine from the baseline anticipation curve, and the baseline anticipation curve defining a relationship between engine power and engine rotational speed; determining a predicted operating offset, when the torque signal is lost, from the difference between the baseline anticipation curve and an engine rotational speed determined by a power setting of the engine at an actual rated power of the engine; and generating the synthesized torque signal when the torque signal is lost at least in part from the engine deterioration offset and the predicted operating offset. determining an engine deterioration offset while the torque signal of the engine is available, wherein determining the engine deterioration offset comprises determining a difference between an engine rotational speed offset and an actual operating offset, the engine rotational speed offset being determined from a difference between a reference speed of rotation of the engine from a baseline anticipation curve for an actual delivered power of the engine and an actual speed of rotation of the engine, the actual operating offset being determined from a difference between the rotational speed of the engine at a maximum rated power and the corresponding rotational speed of the engine from the baseline anticipation curve, and the baseline anticipation curve defining a relationship between engine power and engine rotational speed; determining a predicted operating offset, when the torque signal is lost, from the difference between the baseline anticipation curve and an engine rotational speed determined by a power setting of the engine at an actual rated power of the engine; and generating the synthesized torque signal when the torque signal is lost at least in part from the engine deterioration offset and the predicted operating offset.
A method for performing call processing in a hybrid base station transceiver, the method comprising: processing a physical layer (S2, S22) on a wireless connection protocol with respect to a signal corresponding to anyone of a call to a wireless terminal or a call received from the wireless terminal; performing an analysis of open system interconnection, OS1, Layer 2 and Layer 3 on the wireless connection protocol with respect to the signal and determining which one of a first protocol-based first mobile communication network ( C, 100) and a second protocol-based second mobile communication network (D, 200) the signal is to be transmitted to (S4, S24); and transmitting the signal to the first mobile communication network (C, 100) by performing first protocol processing when transmitting the signal to the first mobile communication network as a result of the determination, and transmitting the signal to the second mobile communication network (D, 200) by performing second protocol processing when transmitting the signal to the second mobile communication network as a result of the determination, said first protocol processing being different from said second protocol processing, wherein the method, further comprises setting a flag (S8,S28) for transmitting corresponding traffic to one of the first mobile communication network (C, 100) and the second mobile communication network (D, 200) in response to a speech channel assignment request from one of the first mobile communication network and the second mobile communication network (S7, S27) and assigning a speech channel (S8, S28). processing a physical layer (S2, S22) on a wireless connection protocol with respect to a signal corresponding to anyone of a call to a wireless terminal or a call received from the wireless terminal; performing an analysis of open system interconnection, OS1, Layer 2 and Layer 3 on the wireless connection protocol with respect to the signal and determining which one of a first protocol-based first mobile communication network ( C, 100) and a second protocol-based second mobile communication network (D, 200) the signal is to be transmitted to (S4, S24); and transmitting the signal to the first mobile communication network (C, 100) by performing first protocol processing when transmitting the signal to the first mobile communication network as a result of the determination, and transmitting the signal to the second mobile communication network (D, 200) by performing second protocol processing when transmitting the signal to the second mobile communication network as a result of the determination, said first protocol processing being different from said second protocol processing, wherein the method, further comprises setting a flag (S8,S28) for transmitting corresponding traffic to one of the first mobile communication network (C, 100) and the second mobile communication network (D, 200) in response to a speech channel assignment request from one of the first mobile communication network and the second mobile communication network (S7, S27) and assigning a speech channel (S8, S28).
A method for dyeing and/or retanning of leather objects, said method comprising the steps of - providing a leather object, which leather object has been processed by at least a tanning process, - introducing the leather object into a process chamber, - subjecting the leather object in the process chamber to a pressurized fluid, - controlling the pressure of the pressurized fluid to reach a supercritical state, - subjecting the leather object to a dyeing agent and/or a retanning agent, which dyeing or retanning agent is dissolved and/or transported in the pressurized fluid for at least a predefined period of time while the pressurized fluid is in the supercritical state, - reducing the pressure in the process chamber, - removing the leather object from the process chamber, wherein the step of reducing the pressure in the process chamber comprises controlling the pressure reduction over time. - providing a leather object, which leather object has been processed by at least a tanning process, - introducing the leather object into a process chamber, - subjecting the leather object in the process chamber to a pressurized fluid, - controlling the pressure of the pressurized fluid to reach a supercritical state, - subjecting the leather object to a dyeing agent and/or a retanning agent, which dyeing or retanning agent is dissolved and/or transported in the pressurized fluid for at least a predefined period of time while the pressurized fluid is in the supercritical state, - reducing the pressure in the process chamber, - removing the leather object from the process chamber,
A method to generate a focus signal from a plurality of edges in an image to indicate a degree of image sharpness in the image, comprising: rejecting or attenuating a contribution of an edge towards the focus signal if a gradient profile associated with the edge has a lack of reflection symmetry across the edge that is excessive, wherein the gradient profile is a sequence of consecutive all-positive or all-negative gradients plotted against a sequence of consecutive integers, the sequence being across a plurality of pixels arrayed side-by-side in a first direction across the edge, a peak gradient within the sequence has a peak gradient value whose magnitude is maximal among magnitudes of gradient values of all gradients within the sequence, and each side of the peak gradient includes at least a gradient, and wherein the lack of reflection symmetry is excessive when a parameter indicative of a degree of asymmetry of the gradient profile across the edge has a value that exceeds an asymmetry threshold or lies outside a tolerance region. rejecting or attenuating a contribution of an edge towards the focus signal if a gradient profile associated with the edge has a lack of reflection symmetry across the edge that is excessive, wherein the gradient profile is a sequence of consecutive all-positive or all-negative gradients plotted against a sequence of consecutive integers, the sequence being across a plurality of pixels arrayed side-by-side in a first direction across the edge, a peak gradient within the sequence has a peak gradient value whose magnitude is maximal among magnitudes of gradient values of all gradients within the sequence, and each side of the peak gradient includes at least a gradient, and wherein the lack of reflection symmetry is excessive when a parameter indicative of a degree of asymmetry of the gradient profile across the edge has a value that exceeds an asymmetry threshold or lies outside a tolerance region.
An isolated population of human cells comprising viable human hematopoietic stem cells from umbilical cord blood of a donor, wherein the stem cells comprise a beneficial gene of the donor that confers resistance to HIV infection, wherein the beneficial gene is a polymorphism of a gene that encodes a CCR5 receptor, the polymorphism being a homozygous CCR5 delta 32 polymorphism, wherein the isolated population of human cells further comprises a pharmaceutical carrier and an anticoagulant.
A method of forming a metallic article from high temperature solid freeform fabrication comprising the step of building a support (52,54) for the article during manufacture of the article wherein at least a portion of the article is held in tension by the support (52, 54) and the stiffness the support provides to the article is selected to inhibit permanent thermal deformation of the article characterized in that the article undergoes a post-manufacture processing wherein the arrangement of the support is altered, by breaking at least a portion thereof, following manufacture of the metallic article by solid free form fabrication and before the post-manufacture processing, the support remaining in place during the post-manufacturing processing.
A method for the identification of devices on a packet-switched network, comprising the steps of: sampling a portion of outbound data packets traversing said network, said packets each including a source address and a numerical identification field, said portion of outbound data packets being less than all of said outbound packets, and wherein outbound packets travel in the direction from the devices to a data network; identifying a first sampled packet and a second sampled packet wherein said source address of said first sampled packet and said source address of said second sampled packet are a common source address; comparing said numerical identification field of said first sampled packet with said numerical identification field of said second sampled packet; and responsive to said step of comparing, determining that said first sampled packet and said second sampled packet were emitted by different ones of said devices. sampling a portion of outbound data packets traversing said network, said packets each including a source address and a numerical identification field, said portion of outbound data packets being less than all of said outbound packets, and wherein outbound packets travel in the direction from the devices to a data network; identifying a first sampled packet and a second sampled packet wherein said source address of said first sampled packet and said source address of said second sampled packet are a common source address; comparing said numerical identification field of said first sampled packet with said numerical identification field of said second sampled packet; and responsive to said step of comparing, determining that said first sampled packet and said second sampled packet were emitted by different ones of said devices.
A projection-type display apparatus comprising: a display unit having a first effective area that is the largest usable area for a display; a virtual effective area image generator configured to generate a virtual effective area image corresponding to a second effective area that is set inside of the first effective area without relying on a resolution of an input image and is a virtual effective area whose geometric distortion has not yet been corrected; an image processor configured to perform resolution conversion for the input image so that an image resolution-converted by the image processor is accommodated in the second effective area; an input image superimposer configured to superimpose the image resolution-converted by the image processor onto the virtual effective area image generated by the virtual effective area image generator; a geometric distortion correcting amount calculator configured to calculate a geometric distortion correcting amount based on the first effective area, the second effective area, and geometric distortion correction parameters; and a geometric distortion corrector configured to correct a geometric distortion by performing enlargement processing of an image output by the input image superimposer based on the geometric distortion correcting amount so that a third effective area that is a post-correction virtual effective area of geometric distortion has a portion located in an area between the first effective area and the second effective area. a display unit having a first effective area that is the largest usable area for a display; a virtual effective area image generator configured to generate a virtual effective area image corresponding to a second effective area that is set inside of the first effective area without relying on a resolution of an input image and is a virtual effective area whose geometric distortion has not yet been corrected; an image processor configured to perform resolution conversion for the input image so that an image resolution-converted by the image processor is accommodated in the second effective area; an input image superimposer configured to superimpose the image resolution-converted by the image processor onto the virtual effective area image generated by the virtual effective area image generator; a geometric distortion correcting amount calculator configured to calculate a geometric distortion correcting amount based on the first effective area, the second effective area, and geometric distortion correction parameters; and a geometric distortion corrector configured to correct a geometric distortion by performing enlargement processing of an image output by the input image superimposer based on the geometric distortion correcting amount so that a third effective area that is a post-correction virtual effective area of geometric distortion has a portion located in an area between the first effective area and the second effective area.
An improved brush for automatic motor vehicle washing systems, wherein said washing brush comprises a plurality of endless belt elements entrained, at the two end portions thereof, on entraining rollers driven by one or more electric motors or mechanical driving means, said endless belt elements being so driven as to perform a linear translating movement pattern with a double rectilinear translation movement and a partial rotary mouvement, characterized in that a tension applied to said brush belt elements is transmitted by a tension motor to a central roller tensioning a plurality of said belt elements each entrained, at the two side end portions thereof, on entraining transmission rollers.
Surface cleaning device for cleaning surfaces, having a base section which comprises an underside on which a cleaning surface, in particular a cleaning pad, is provided or can be fixed, and an upper side on which a handle is arranged, wherein the base section has along its peripheral line at least one section which is rounded along the peripheral line, and at least one section which tapers to a point along the peripheral line, characterised in that two straight sections which are parallel to one another are provided between the pointed section and the at least one round section.
An immunogenic composition comprising an influenza virus antigen, for use in a method for immunizing a patient against influenza virus, comprising the step of administering the immunogenic composition to the patient, wherein: (a) the patient is immunologically naive to influenza virus; and (b) the immunogenic composition is delivered to the patient's Langerhans cells by microporation using microneedles which open pores in the patient's stratum corneum, wherein the microneedles range in length from 25μm to 1mm; and wherein the influenza virus antigen is in the form of an inactivated virus or a virosome, or wherein the influenza virus antigen is produced in a recombinant or synthetic system that does not involve growth of influenza viruses. (a) the patient is immunologically naive to influenza virus; and (b) the immunogenic composition is delivered to the patient's Langerhans cells by microporation using microneedles which open pores in the patient's stratum corneum, wherein the microneedles range in length from 25μm to 1mm; and wherein the influenza virus antigen is in the form of an inactivated virus or a virosome, or wherein the influenza virus antigen is produced in a recombinant or synthetic system that does not involve growth of influenza viruses.
A manufacturing method of a silicon carbide substrate comprising the steps of: preparing a base substrate having a main surface and made of silicon carbide (S1 - S3); washing said main surface using a first alkaline solution; wherein said manufacturing method is characterized by further comprising the steps of: washing said main surface using a second alkaline solution after the step of washing using said first alkaline solution; and etching said main surface after the step of washing using said second alkaline solution, wherein said etching step uses a gas containing at least one of a hydrogen gas and a hydrogen chloride gas. preparing a base substrate having a main surface and made of silicon carbide (S1 - S3); washing said main surface using a first alkaline solution; wherein said manufacturing method is characterized by further comprising the steps of: washing said main surface using a second alkaline solution after the step of washing using said first alkaline solution; and etching said main surface after the step of washing using said second alkaline solution, wherein said etching step uses a gas containing at least one of a hydrogen gas and a hydrogen chloride gas. washing said main surface using a second alkaline solution after the step of washing using said first alkaline solution; and etching said main surface after the step of washing using said second alkaline solution, wherein said etching step uses a gas containing at least one of a hydrogen gas and a hydrogen chloride gas.
A power conversion device, comprising: a casing comprising a base plate, the base plate having a first surface and a base surface; wherein, the first surface and the base surface are parallel and spaced apart, and wherein a recess on the base surface forms a recessed space in the base plate; and a top cover, characterized in that the power conversion device comprises: an isolation wall partitioning the recessed space into a circuit board accommodation space and a coolant channel, the isolation wall having a circuit board subsidiary wall adjacent to the circuit board accommodation space and a coolant channel subsidiary wall adjacent to the coolant channel, the circuit board subsidiary wall and the coolant channel subsidiary wall have a height difference; a first circuit board unit located in the circuit board accommodation space; a converter module located on a side of the base plate opposite to the first surface, a coolant channel base plate fluidly sealing the coolant channel; a circuit board base plate sealing the first circuit board unit in the circuit board accommodation space; and the top cover sealing the converter module. a casing comprising a base plate, the base plate having a first surface and a base surface; wherein, the first surface and the base surface are parallel and spaced apart, and wherein a recess on the base surface forms a recessed space in the base plate; and a top cover, characterized in that the power conversion device comprises: an isolation wall partitioning the recessed space into a circuit board accommodation space and a coolant channel, the isolation wall having a circuit board subsidiary wall adjacent to the circuit board accommodation space and a coolant channel subsidiary wall adjacent to the coolant channel, the circuit board subsidiary wall and the coolant channel subsidiary wall have a height difference; a first circuit board unit located in the circuit board accommodation space; a converter module located on a side of the base plate opposite to the first surface, a coolant channel base plate fluidly sealing the coolant channel; a circuit board base plate sealing the first circuit board unit in the circuit board accommodation space; and the top cover sealing the converter module. an isolation wall partitioning the recessed space into a circuit board accommodation space and a coolant channel, the isolation wall having a circuit board subsidiary wall adjacent to the circuit board accommodation space and a coolant channel subsidiary wall adjacent to the coolant channel, the circuit board subsidiary wall and the coolant channel subsidiary wall have a height difference; a first circuit board unit located in the circuit board accommodation space; a converter module located on a side of the base plate opposite to the first surface, a coolant channel base plate fluidly sealing the coolant channel; a circuit board base plate sealing the first circuit board unit in the circuit board accommodation space; and the top cover sealing the converter module.
Process for producing a sintered bond, in which a first join partner and at least one further join partner (2, 3, 5) are sintered together in a sintering process under the action of pressure and heat using sintering material, where a sintering material comprising metallic structured particles provided with an organic coating and metallic and/or ceramic auxiliary particles which are not organically coated is used, where the auxiliary particles do not give off any gases during the sintering process, characterized in that the auxiliary particles are used as spacers to set a defined spacing between the join partners (2, 3, 5) and the spacing after the sintering process is set to one layer of the auxiliary particles by part of the auxiliary particles touching both join partners, where the auxiliary particles have a particle size which is a multiple of the particle size of the structured particles and the auxiliary particles are inert in respect of the sintering process, that is to say they withstand the sintering process at least approximately unaltered.
Refrigerated showcase comprising a body, at least a shelf for supporting good, a transparent door, at least a LED bar, a cooling system, characterized in that: it further comprises: - a temperature sensor and/or, - a humidity sensor and - an accelerometer detecting the number of door openings, the said LED bar comprising - a memory recording the number of door openings and - a communication interface allowing a processing unit to connect to a remote control device allowing to exchange data and commands with the processing unit. - a temperature sensor and/or, - a humidity sensor and - an accelerometer detecting the number of door openings, the said LED bar comprising - a memory recording the number of door openings and - a communication interface allowing a processing unit to connect to a remote control device allowing to exchange data and commands with the processing unit.