mhurhangee/ep-ind-claims huggingface dataset:
A signal generating circuit, applied to a semiconductor memory, comprising: a clock module, configured to receive an external clock signal to generate an internal clock signal; a controlling module, comprising a mode register and a calculator; wherein the mode register is configured to store a delay tCCD between adjacent column address strobe signals of the semiconductor memory, and output a first code to represent the delay tCCD between the adjacent column address strobe signals; and the calculator is configured to receive the first code and multiply the first code by a coefficient to output as the control signal, wherein the delay tCCD changes according to a frequency of the external clock signal; and a generating module, connected with the clock module and the controlling module respectively, and configured to receive the internal clock signal, the control signal and a flag signal to generate a target signal; wherein when the flag signal changes from a first level to a second level, the target signal is changed from a third level to a fourth level, and after the target signal maintains the fourth level for a target time length, the target signal is changed from the fourth level to the third level; wherein the generating module is further configured to determine the target time length according to the internal clock signal and the control signal, wherein the target time length is T×N×L, where T is a period of the internal clock signal, L is the first code, and N is the coefficient of the first code L. a clock module, configured to receive an external clock signal to generate an internal clock signal; a controlling module, comprising a mode register and a calculator; wherein the mode register is configured to store a delay tCCD between adjacent column address strobe signals of the semiconductor memory, and output a first code to represent the delay tCCD between the adjacent column address strobe signals; and the calculator is configured to receive the first code and multiply the first code by a coefficient to output as the control signal, wherein the delay tCCD changes according to a frequency of the external clock signal; and a generating module, connected with the clock module and the controlling module respectively, and configured to receive the internal clock signal, the control signal and a flag signal to generate a target signal; wherein when the flag signal changes from a first level to a second level, the target signal is changed from a third level to a fourth level, and after the target signal maintains the fourth level for a target time length, the target signal is changed from the fourth level to the third level; wherein the generating module is further configured to determine the target time length according to the internal clock signal and the control signal, wherein the target time length is T×N×L, where T is a period of the internal clock signal, L is the first code, and N is the coefficient of the first code L.
An acoustical assembly comprising - an assembly housing, - a receiver module arranged within the assembly housing; - one or more spacers being arranged between the assembly housing and the receiver module, the one or more spacers forming a free-space region between the assembly housing and the receiver module, and - one or more microphone units being at least partly positioned in the free-space region between the assembly housing and the receiver module, wherein the one or more microphone units comprise a MEMS microphone unit comprising a MEMS microphone having a sound inlet and a signal processing circuit, wherein the one or more spacers comprise one or more vibration isolating elements in order to vibration isolate the assembly housing from the receiver module, characterized in that said MEMS microphone unit is integrated with the assembly housing. - an assembly housing, - a receiver module arranged within the assembly housing; - one or more spacers being arranged between the assembly housing and the receiver module, the one or more spacers forming a free-space region between the assembly housing and the receiver module, and - one or more microphone units being at least partly positioned in the free-space region between the assembly housing and the receiver module, wherein the one or more microphone units comprise a MEMS microphone unit comprising a MEMS microphone having a sound inlet and a signal processing circuit, wherein the one or more spacers comprise one or more vibration isolating elements in order to vibration isolate the assembly housing from the receiver module, characterized in that said MEMS microphone unit is integrated with the assembly housing. wherein the one or more spacers comprise one or more vibration isolating elements in order to vibration isolate the assembly housing from the receiver module, characterized in that said MEMS microphone unit is integrated with the assembly housing.
A method of receiving signalling information in a cellular communication system; the method comprising: allocating a first physical resource and a second physical resource to a mobile terminal in response to a resource availability of the first physical resource and the second physical resource; receiving the first physical resource comprising a first channel conveying scheduling assistance data relating to packet data communication of the mobile terminal and a second channel conveying other data as multiplexed channels, if the first physical resource is selected; receiving the second physical resource comprising the first channel conveying the scheduling assistance data if the second physical resource is selected; extracting other data from the second channel, if the first physical resource is selected; wherein the second channel employs a retransmission scheme and the first channel does not employ the retransmission scheme. allocating a first physical resource and a second physical resource to a mobile terminal in response to a resource availability of the first physical resource and the second physical resource; receiving the first physical resource comprising a first channel conveying scheduling assistance data relating to packet data communication of the mobile terminal and a second channel conveying other data as multiplexed channels, if the first physical resource is selected; receiving the second physical resource comprising the first channel conveying the scheduling assistance data if the second physical resource is selected; extracting other data from the second channel, if the first physical resource is selected; wherein the second channel employs a retransmission scheme and the first channel does not employ the retransmission scheme.
A chemisorption based energy storage device comprising: a first chemical reactor containing a first sorbent material and a second chemical reactor containing a second sorbent material different to the first sorbent material, the first sorbent material having an affinity towards a refrigerant gas at a high temperature and the second sorbent material having an affinity towards the refrigerant gas at a low temperature, the first and second chemical reactors being further provided with means for putting heat in to, or taking heat out of, the first and/or the second sorbent materials; a compressor/expander module selectively connected to the first and second chemical reactors, the compressor/expander module being configured to either compress or expand the refrigerant; wherein the means for putting heat in to, or taking heat out of, the first and/or the second sorbent materials provides a flow of refrigerant between the compressor/expander module and the first and second chemical reactors. a first chemical reactor containing a first sorbent material and a second chemical reactor containing a second sorbent material different to the first sorbent material, the first sorbent material having an affinity towards a refrigerant gas at a high temperature and the second sorbent material having an affinity towards the refrigerant gas at a low temperature, the first and second chemical reactors being further provided with means for putting heat in to, or taking heat out of, the first and/or the second sorbent materials; a compressor/expander module selectively connected to the first and second chemical reactors, the compressor/expander module being configured to either compress or expand the refrigerant; wherein the means for putting heat in to, or taking heat out of, the first and/or the second sorbent materials provides a flow of refrigerant between the compressor/expander module and the first and second chemical reactors.
A display panel having a plurality of subpixels, comprising: a first base substrate; a second base substrate facing the first base substrate; a liquid crystal layer between the first base substrate and the second base substrate; a plurality of first electrode groups respectively in the plurality of subpixels and on a side of the first base substrate facing the liquid crystal layer, and configured to generate a first fringe electric field to form a first liquid crystal lens in a respective one of the plurality of subpixels in the liquid crystal layer; and a plurality of second electrode groups respectively in the plurality of subpixels and on a side of the second base substrate facing the liquid crystal layer, and configured to generate a second fringe electric field to form a second liquid crystal lens in a respective one of the plurality of subpixels in the liquid crystal layer, the display panel further characterised by comprising a black matrix defining a plurality of second apertures; and a color filter between the second base substrate and the plurality of second electrode groups, and comprising a plurality of color filter blocks respectively in the plurality of second apertures, wherein an orthographic projection of the second liquid crystal lens in each of the plurality of subpixels on the second base substrate covers orthographic projections of N numbers of color filter blocks of the plurality of color filter blocks, N is an even integer. a first base substrate; a second base substrate facing the first base substrate; a liquid crystal layer between the first base substrate and the second base substrate; a plurality of first electrode groups respectively in the plurality of subpixels and on a side of the first base substrate facing the liquid crystal layer, and configured to generate a first fringe electric field to form a first liquid crystal lens in a respective one of the plurality of subpixels in the liquid crystal layer; and a plurality of second electrode groups respectively in the plurality of subpixels and on a side of the second base substrate facing the liquid crystal layer, and configured to generate a second fringe electric field to form a second liquid crystal lens in a respective one of the plurality of subpixels in the liquid crystal layer, the display panel further characterised by comprising a black matrix defining a plurality of second apertures; and a color filter between the second base substrate and the plurality of second electrode groups, and comprising a plurality of color filter blocks respectively in the plurality of second apertures, wherein an orthographic projection of the second liquid crystal lens in each of the plurality of subpixels on the second base substrate covers orthographic projections of N numbers of color filter blocks of the plurality of color filter blocks, N is an even integer.
A method for manufacturing a semiconductor device, comprising the steps in the following order: forming a metal film on a first substrate; forming a metal oxide film and a silicon oxide film on the metal film; forming a peeling layer containing an element to be peeled over the silicon oxide film; forming an organic resin film which is dissolvable in a solvent over the peeling layer; pasting a first two-sided tape over the organic resin film; cutting off and removing a part of the first substrate; pasting a second substrate to the first two-sided tape; performing peeling to separate the first substrate from the peeling layer; and pasting a third substrate to the peeling layer with an adhesive material; characterized in that peeling is performed from a part where the first substrate is cut off and removed, wherein peeling occurs inside or at an interface of the metal oxide film. forming a metal film on a first substrate; forming a metal oxide film and a silicon oxide film on the metal film; forming a peeling layer containing an element to be peeled over the silicon oxide film; forming an organic resin film which is dissolvable in a solvent over the peeling layer; pasting a first two-sided tape over the organic resin film; cutting off and removing a part of the first substrate; pasting a second substrate to the first two-sided tape; performing peeling to separate the first substrate from the peeling layer; and pasting a third substrate to the peeling layer with an adhesive material; characterized in that peeling is performed from a part where the first substrate is cut off and removed, wherein peeling occurs inside or at an interface of the metal oxide film.
A method of characterising the surface of an aspheric diffractive structure, the method comprising: receiving measurement data representing the results of a measurement operation performed on the surface of the aspheric diffractive structure; fitting an equation having an aspheric component to the received data; producing fitted data based upon the fitted equation; subtracting the fitted data from the received data to produce subtracted data; identifying one or more step edge locations and step heights in the subtracted data, characterized in that the identifying step identifies a plurality of step edge locations and corresponding step heights, the method further comprising fitting a function to points at the identified heights and locations to determine data representing one or more components of the surface, and in that the method further comprises: using the fitted function and the identified step edges and locations to produce fitted stepped data; subtracting the fitted stepped data from the received data to produce further subtracted data; and fitting the equation having an aspheric component to the further subtracted data to produce fitted aspheric information. receiving measurement data representing the results of a measurement operation performed on the surface of the aspheric diffractive structure; fitting an equation having an aspheric component to the received data; producing fitted data based upon the fitted equation; subtracting the fitted data from the received data to produce subtracted data; identifying one or more step edge locations and step heights in the subtracted data, characterized in that the identifying step identifies a plurality of step edge locations and corresponding step heights, the method further comprising fitting a function to points at the identified heights and locations to determine data representing one or more components of the surface, and in that the method further comprises: using the fitted function and the identified step edges and locations to produce fitted stepped data; subtracting the fitted stepped data from the received data to produce further subtracted data; and fitting the equation having an aspheric component to the further subtracted data to produce fitted aspheric information.
A vulcanizable composition comprising a) an elastomeric polymer having a Mooney viscosity (ML 1 +4) at 125°C) of least 10 MU, b) a phenol formaldehyde resin cross-linker c) an activator package d) a VOC absorber and e) an elastomeric polymer having a Mooney viscosity (ML 1+4) at 125°C) of less than 10 MU characterized in that the VOC absorber d) is a zeolite. a) an elastomeric polymer having a Mooney viscosity (ML 1 +4) at 125°C) of least 10 MU, b) a phenol formaldehyde resin cross-linker c) an activator package d) a VOC absorber and e) an elastomeric polymer having a Mooney viscosity (ML 1+4) at 125°C) of less than 10 MU characterized in that the VOC absorber d) is a zeolite.
A control system for controlling heating of an aftertreatment system for treating exhaust gas emitted from an internal combustion engine of a vehicle, the control system comprising at least one controller configured to: determine an energy usage per unit time for the vehicle; determine an energy usage per unit distance travelled by the vehicle; and set an exhaust heating setpoint for the aftertreatment system in dependence on the determined energy usage per unit time and the energy usage per unit distance. determine an energy usage per unit time for the vehicle; determine an energy usage per unit distance travelled by the vehicle; and set an exhaust heating setpoint for the aftertreatment system in dependence on the determined energy usage per unit time and the energy usage per unit distance.
Handling assembly for plate-type products of wood or wood substitutes, with a handling device, a plurality of mobile supply elements set up to receive plate-type products, a plurality of plate-type products of wood or wood substitutes, a machine control, wherein each mobile supply element has at least one shelf (18, 19) for receiving and/or depositing plate-type products, characterised in that at least one shelf (18, 19) and/or at least one sub-division apparatus (16, 17) of at least one mobile supply element is configured so that it can be manipulated by the handling device, and the handling device is designed to manipulate the at least one shelf (18, 19) and/or sub-division apparatus (16, 17) so that plate-type products are placed in the respective supply element according to an item plan produced by the machine control.
A high-strength and high-ductility nonmagnetic steel having excellent weldability, the nonmagnetic steel comprising, by wt%, 0.03 to 0.50% of carbon, 0.3% or less of silicon (Si), excluding 0%, 15 to 30% of manganese (Mn), more than 0% to 2.0% or less of chromium (Cr), more than 0% to 0.5% or less of molybdenum (Mo), 0.01 to 0.1% of titanium (Ti), 0.01 to 0.5% of vanadium, 0.2 to 1.0% of aluminum (Al), 0.1% or less of phosphorus, 0.01% or less of sulfur, and 0.03% or less of nitrogen, with a balance of Fe and other inevitable impurities, wherein the nonmagnetic steel has a single-phase austenite structure, wherein the steel has a relative permeability of 1.01 or less in a magnetic field of 50 kA/m as defined in the description and has a tensile strength of 450 MPa or more and an elongation of 55% or more, measured according to ASTM E8/E8M, wherein the steel has a thickness of 10 to 40 mm. 15 to 30% of manganese (Mn), more than 0% to 2.0% or less of chromium (Cr), more than 0% to 0.5% or less of molybdenum (Mo), 0.01 to 0.1% of titanium (Ti), 0.01 to 0.5% of vanadium, 0.2 to 1.0% of aluminum (Al), 0.1% or less of phosphorus, 0.01% or less of sulfur, and 0.03% or less of nitrogen, with a balance of Fe and other inevitable impurities, wherein the nonmagnetic steel has a single-phase austenite structure, wherein the steel has a relative permeability of 1.01 or less in a magnetic field of 50 kA/m as defined in the description and has a tensile strength of 450 MPa or more and an elongation of 55% or more, measured according to ASTM E8/E8M, wherein the steel has a thickness of 10 to 40 mm.
A computer implemented method of generating a view of a jaw, comprising: obtaining a tomographic dataset of a volume including at least part of the jaw; automatically identifying in the tomographic dataset inner and outer surfaces of the jaw by: selecting rays generally radially of the jaw; locating crossing points where the rays cross the boundaries of the jaw; and determining the position of the jaw from the positions of the located crossing point; selecting data for a region with boundaries related to the identified inner and outer surfaces; generating from the selected data a panoramic view in which one element of the image represents generally radial line through the slice parallel to a predetermined plane; and displaying the panoramic view. obtaining a tomographic dataset of a volume including at least part of the jaw; automatically identifying in the tomographic dataset inner and outer surfaces of the jaw by: selecting rays generally radially of the jaw; locating crossing points where the rays cross the boundaries of the jaw; and determining the position of the jaw from the positions of the located crossing point; selecting rays generally radially of the jaw; locating crossing points where the rays cross the boundaries of the jaw; and determining the position of the jaw from the positions of the located crossing point; selecting data for a region with boundaries related to the identified inner and outer surfaces; generating from the selected data a panoramic view in which one element of the image represents generally radial line through the slice parallel to a predetermined plane; and displaying the panoramic view.
Process to produce a microbiologically stable fresh cheese, said process comprising the step of adding natamycin, characterized in that at least part of the natamycin is added to milk before curd formation.
A propulsion assembly for a torpedo equipped with a wire-guidance cable, the assembly comprising at least two parts (15, 5; 5, 6; 6, 16) in relative rotational motion; face sealing means interposed between said parts (15, 5; 5, 6; 6, 16); and protection means for preventing access of said cable to said face sealing means, said protection means defining a labyrinth.
A network component comprising a processor configured to: communicate a frame within a synchronization window, wherein the frame comprises a timeslot map indicating a plurality of data types carried in a plurality of timeslots, and wherein each timeslot is assigned to carry one of the data types; identify an idle timeslot that is assigned to carry a first data type in accordance with an indication carried in the timeslot for indicating whether the timeslots are active timeslots or idle timeslots; and insert a second data type into the idle timeslot; characterized in that the second data type is part of a second data type stream, and wherein the processor is further configured to identify an active timeslot following the idle timeslot, the active timeslot assigned to carry the first data type; and interrupt the second data type stream by inserting the first data type into the active timeslot. communicate a frame within a synchronization window, wherein the frame comprises a timeslot map indicating a plurality of data types carried in a plurality of timeslots, and wherein each timeslot is assigned to carry one of the data types; identify an idle timeslot that is assigned to carry a first data type in accordance with an indication carried in the timeslot for indicating whether the timeslots are active timeslots or idle timeslots; and insert a second data type into the idle timeslot;
A peptide, wherein said peptide inhibits a trypsin protease protein of a Caligidae, wherein the peptide comprises an amino acid sequence selected from the group consisting of SEQ ID NO 3, SEQ ID NO 5 or SEQ ID NO 10 and variants thereof being at least 70% identical over the entire sequence with any of the sequences SEQ ID NO 3, SEQ ID NO 5 or SEQ ID NO 10 and wherein said variant inhibit a trypsin protease protein.