mhurhangee/ep-ind-claims huggingface dataset:
A material set for manufacturing a glass object comprising: a powder material including glass and a first water soluble resin, wherein the glass is coated with the first water soluble resin; and a liquid material including water, a cross-linking agent, and a second water soluble resin having a mass average molecular weight of less than 50,000, wherein the second water soluble resin includes polyvinyl pyrrolidone, and the first water soluble resin includes a modified polyvinyl alcohol. a powder material including glass and a first water soluble resin, wherein the glass is coated with the first water soluble resin; and a liquid material including water, a cross-linking agent, and a second water soluble resin having a mass average molecular weight of less than 50,000, wherein the second water soluble resin includes polyvinyl pyrrolidone, and the first water soluble resin includes a modified polyvinyl alcohol.
A method of enabling multiple operating systems (201, 202) to run concurrently on the same computer, the method comprising: scheduling a plurality of tasks (207, 208) for execution by at least first and second operating systems; assigning a priority to each operating system, wherein the first operating system comprises a low priority level of operation, P PL, and a high priority level of operation, P PH, and wherein the second operating system comprises a low priority level of operation, P SL, and a high priority level of operation, P SH, such that P SL < P PL < P SH < P PH; characterized by introducing in each operating system a barrier routine in order to separate tasks of different priorities, wherein the barrier routine has a priority that is lower than a higher one of the different priorities and higher than a lower one of the different priorities, wherein performing the barrier routine comprises passing control to a common program to cause a decrease of the priority of the operating system performing the barrier routine; comparing, by the common program, the priorities of all operating systems and passing control to the operating system having the highest priority. scheduling a plurality of tasks (207, 208) for execution by at least first and second operating systems; assigning a priority to each operating system, wherein the first operating system comprises a low priority level of operation, P PL, and a high priority level of operation, P PH, and wherein the second operating system comprises a low priority level of operation, P SL, and a high priority level of operation, P SH, such that P SL < P PL < P SH < P PH; characterized by
A mower combination comprising an agricultural vehicle and a number of mowing units (6,8,10) suitable for cutting a standing crop connected to the agricultural vehicle, including a front mowing unit and two lateral mowing units (8,10) located behind and to the sides of the front mowing unit, each of the lateral mowing units (8,10) being provided with conveyor units (16,18) to deposit the cut crop as a swath, the mower combination further comprising a control unit configured to receive a plurality of signals, characterised in that the signals represent the location of the mower combination, a lateral displacement with respect to the lateral mowing units (8,10) of each of the conveyor units (16,18) and a direction of operation of each of the conveyor units (16,18), and in that the control unit is further configured to receive the plurality of signals and compare the signals for the location of the mower combination, the lateral displacement of the conveyor units (16,18) and the direction of operation of the conveyor units (16,18) against a predetermined set of values and as required to adjust the displacement or direction of operation of at least one conveyor unit (16,18) based on this comparison. characterised in that the signals represent the location of the mower combination, a lateral displacement with respect to the lateral mowing units (8,10) of each of the conveyor units (16,18) and a direction of operation of each of the conveyor units (16,18), and in that the control unit is further configured to receive the plurality of signals and compare the signals for the location of the mower combination, the lateral displacement of the conveyor units (16,18) and the direction of operation of the conveyor units (16,18) against a predetermined set of values and as required to adjust the displacement or direction of operation of at least one conveyor unit (16,18) based on this comparison.
An induration machine, with • a travelling grate for transporting bulk material along a transport direction from a heating zone for heating and/or drying the material to a cooling zone for cooling the material by cooling gas; • a hood disposed over the travelling grate having a first hood section in the heating zone and a second hood section in the cooling zone; and • two recuperation ducts for guiding used cooling gas from the second hood section to the first hood section, wherein the recuperation ducts are disposed on opposite sides of the hood, are laterally offset with respect to the hood, and are connected to the second hood section by a V-shaped gas collector duct and each recuperation duct is connected to the first hood section by at least one gas supply duct and has at least one dust purge opening disposed in the lowermost part (11.1) of the recuperation duct for purging dust from the recuperation duct. • a travelling grate for transporting bulk material along a transport direction from a heating zone for heating and/or drying the material to a cooling zone for cooling the material by cooling gas; • a hood disposed over the travelling grate having a first hood section in the heating zone and a second hood section in the cooling zone; and • two recuperation ducts for guiding used cooling gas from the second hood section to the first hood section,
A method for transmitting broadcast signals, the method comprising; encoding Physical Layer Pipe; PLP, data by a Bit Interleaved Coded Modulation, BICM, encoder, wherein the encoding further comprises: mapping first and second input signals of the PLP data onto constellations by Quadrature Amplitude Modulation, QAM, modes; Multi-input Multi-Output, MIMO, processing the mapped first and second input signals; and time interleaving the MIMO processed first and second input signals, wherein the encoding PLP data by a Bit Interleaved Coded Modulation, BICM, encoder further includes encoding PLP data by using a Multi-Input Single-Output, MISO, scheme; building at least two signal frames by mapping the encoded PLP data; frequency interleaving data in the built at least two signal frames by a pair of consecutive cells; and modulating the frequency interleaved data in the at least two signal frames by an Orthogonal Frequency Division Multiplexing, OFDM, method and transmitting at least two broadcast signals having the modulated data, wherein at least one signal frame includes a preamble and data symbols, wherein the modulating further includes inserting a P1 symbol and an AP1 symbol into the preamble, wherein the P1 symbol includes a front part, a main part and an end part and the AP1 symbol includes a front part, a main part and an end part, wherein a length of the front part in the AP1 symbol is different from a length of the front part in the P1 symbol, and wherein a length of the end part in the AP1 symbol is different from a length of the end part in the P1 symbol. mapping first and second input signals of the PLP data onto constellations by Quadrature Amplitude Modulation, QAM, modes; Multi-input Multi-Output, MIMO, processing the mapped first and second input signals; and time interleaving the MIMO processed first and second input signals, wherein the encoding PLP data by a Bit Interleaved Coded Modulation, BICM, encoder further includes encoding PLP data by using a Multi-Input Single-Output, MISO, scheme;
A terminal device configured to communicate with a base station apparatus through uplink and with another terminal device (1B, 1C) through a first link, the terminal device comprising: a transmission unit configured to transmit to the base station apparatus a first MAC control element which includes a first buffer size field indicating an amount of first data available for transmission in a first buffer for the uplink, and a second MAC control element which includes a second buffer size field indicating an amount of second data available for transmission in a second buffer for the first link that is used for communication between the terminal device and the other terminal device (1B, 1C), wherein in a case that a first parameter provided by a higher layer is not configured, a value taken by the first buffer size field is selected based on a first table, in a case that the first parameter is configured, a value that is taken by the first buffer size field is selected based on a second table different from the first table, a value taken by the second buffer size field is selected based on the first table. a transmission unit configured to transmit to the base station apparatus a first MAC control element which includes a first buffer size field indicating an amount of first data available for transmission in a first buffer for the uplink, and a second MAC control element which includes a second buffer size field indicating an amount of second data available for transmission in a second buffer for the first link that is used for communication between the terminal device and the other terminal device (1B, 1C), wherein a first MAC control element which includes a first buffer size field indicating an amount of first data available for transmission in a first buffer for the uplink, and a second MAC control element which includes a second buffer size field indicating an amount of second data available for transmission in a second buffer for the first link that is used for communication between the terminal device and the other terminal device (1B, 1C), wherein in a case that a first parameter provided by a higher layer is not configured, a value taken by the first buffer size field is selected based on a first table, in a case that the first parameter is configured, a value that is taken by the first buffer size field is selected based on a second table different from the first table, a value taken by the second buffer size field is selected based on the first table.
Ultrasonic sensor for measuring transit time in a medium, in particular in a fluid, comprising an acoustic transducer which can be used as an ultrasonic transmitter and/or as an ultrasonic receiver, wherein the acoustic transducer is designed with a directional characteristic in such a way that it emits sound in at least two different directions (R 1, R 2a, R 2b) and/or receives sound from at least two different directions (R 1, R 2a, R 2b), wherein the acoustic transducer has a diaphragm with at least one dimension a or dimensions a, b, wherein the diaphragm has a variable thickness (d) with a plurality of raised portions and/or a plurality of recesses and/or a direction-indicating element is fitted on the diaphragm and has a variable thickness (d) with a plurality of raised portions and/or a plurality of recesses; characterized in that the diaphragm has at least one of the following properties: the diaphragm is of circular design and the dimension a is a diameter of the diaphragm, wherein the dimension a is two to three times the wavelength λ of the emitted and/or received sound; the diaphragm is of elliptical design, wherein one of the dimensions a, b of the elliptical diaphragm lies in the range of two to three times the wavelength of the emitted and/or received sound; the diaphragm is of rectangular design, wherein the at least one dimension comprises a first side length a and a second side length b, wherein the first side length a is 1.7 to 3.5 times the wavelength λ and the second side length b is 1.5 to 4 times the wavelength λ of the emitted and/or received sound, wherein the diaphragm is, in particular, of square design with a side length a = b. the diaphragm is of circular design and the dimension a is a diameter of the diaphragm, wherein the dimension a is two to three times the wavelength λ of the emitted and/or received sound; the diaphragm is of elliptical design, wherein one of the dimensions a, b of the elliptical diaphragm lies in the range of two to three times the wavelength of the emitted and/or received sound; the diaphragm is of rectangular design, wherein the at least one dimension comprises a first side length a and a second side length b, wherein the first side length a is 1.7 to 3.5 times the wavelength λ and the second side length b is 1.5 to 4 times the wavelength λ of the emitted and/or received sound, wherein the diaphragm is, in particular, of square design with a side length a = b.
A method for use in configuring a data center, comprising: providing a number of base modules where each base module includes an equipment support unit for mounting electronic equipment in a vertically stacked configuration and a cooling unit including a number of regulators for supplying cool air to said electronic equipment, wherein said regulators are disposed at back sides of said base modules, wherein each of said cooling units comprises a regulator connected to a cooling air passageway associated with a source of pressurized, cooled air; and arranging first and second base modules of said number of base modules in an abutting, back-to-back configuration, wherein a first back side of said first base module substantially abuts a second back side of said second base module, wherein said first and second back sides of said first and second base modules have wedge shapes and said arranging comprises positioning said first and second base modules such that said first and second back sides complement each other. providing a number of base modules where each base module includes an equipment support unit for mounting electronic equipment in a vertically stacked configuration and a cooling unit including a number of regulators for supplying cool air to said electronic equipment, wherein said regulators are disposed at back sides of said base modules, wherein each of said cooling units comprises a regulator connected to a cooling air passageway associated with a source of pressurized, cooled air; and arranging first and second base modules of said number of base modules in an abutting, back-to-back configuration, wherein a first back side of said first base module substantially abuts a second back side of said second base module, wherein said first and second back sides of said first and second base modules have wedge shapes and said arranging comprises positioning said first and second base modules such that said first and second back sides complement each other.
A laundry detergent or cleaning composition which comprises a hydrophobic group-containing copolymer characterized by having 1 wt% or more but below 50 wt% of a structural unit (a) derived from at least one kind of monomer selected from ether bond-containing monomers represented by the following formulas and; in the above formula, R 0 is a hydrogen atom or CH 3 group, R is a CH 2 group, CH 2 CH 2 group or single bond, X is a number in the range of 0-5 (provided X is a number in the range of 1-5 if R is a single bond), and R 1 is an organic group having 6-16 carbon atoms; in the above formula, R 0 is a hydrogen atom or CH 3 group, R is a CH 2 group, CH 2 CH 2 group or single bond, X is a number in the range of 0-5, and R 1 is a hydrogen atom or organic group having 1-20 carbon atoms; and 50 wt% or more but 99 wt% or less of a structural unit (b) derived from a carboxyl group-containing monomer as an essential constituting unit.
A method for determining a stage of a neurodegenerative disease, the method comprising: generating an in vivo image of apoptosing cells in a subject's eye, the subject having been administered a labelled apoptotic marker, and counting the number of apoptosing cells in the image, the method further comprising comparing the number of apoptosing cells in the image with the number of apoptosing cells in an image of the subject's eye previously obtained.
A receiver adapted to receive a radio frequency, RF, signal in the form of a modulated carrier signal with a predetermined carrier frequency, said receiver comprising a differential phase-domain demodulator (102, 103) adapted to demodulate the RF signal received at an input thereof and to output a demodulated signal, wherein said demodulator is adapted to demodulate a carrier frequency offset, CFO, present in the RF signal into a DC offset, a plurality of high-pass filters (404a-c) connected to an output of the differential phase-domain demodulator for receiving and high-pass filtering the demodulated signal, a filter selection unit adapted to monitor the outputs of the high pass filters and select one of the plurality of filters (404a-c) based on the CFO, wherein the plurality of high-pass filters are adapted to operate with a first set of filter responses during a first time period of the demodulated signal and operate with a second set of filter responses during a second time period of the demodulated signal.
A spring steel wire comprising, by mass%, C: 0.40% to 0.75%, Si: 1.00% to 5.00%, Mn: 0.20% to 2.00%, P: 0.0001% to 0.0500%, S: 0.0001% to 0.0500%, Cr: 0.50% to 3.50%, Al: 0.0005% to 0.0500%, N: 0.0020% to 0.0100%, Mo: 0% to 2.00%, V: 0% to 0.50%, W: 0% to 0.50%, Nb: 0% to 0.100%, Ti: 0% to 0.100%, Ca: 0% to 0.0100%, Mg: 0% to 0.0100%, Zr: 0% to 0.1000%, B: 0% to 0.0100%, Cu: 0% to 1.00%, Ni: 0% to 3.00%, and a remainder of Fe and impurities, wherein a structure includes, by area ratio, a tempered martensite of 90% or more, wherein a prior austenite grain size number is No. 12.5 or higher, wherein a presence density of iron-based carbide having an equivalent circle diameter ranging from 0.15 μm to 0.50 μm is 0.40 pieces/μm 2 to 2.00 pieces/μm 2, and wherein the prior austenite grain size number and the presence density of iron-based carbide are measured by the methods disclosed in the present application.
Method for correcting the effect of twist stresses in metal rods, comprising the steps of a. feeding a couple of metal rods placed side by side to a straightening unit along a feed axis; b. feeding a first rod of said couple of metal rods through at least one first correcting wheel provided with a grooved portion, suitably shaped, suitable to engage also transversely said first rod, and with an adjacent flat bottom portion suitable to engage a second rod fed by the side of said first rod; c. performing the axial shifting of said first correction wheel, in a direction transverse to the feed axis of said rods, in order to perform the correction of the twist effect of said first rod. a. feeding a couple of metal rods placed side by side to a straightening unit along a feed axis; b. feeding a first rod of said couple of metal rods through at least one first correcting wheel provided with a grooved portion, suitably shaped, suitable to engage also transversely said first rod, and with an adjacent flat bottom portion suitable to engage a second rod fed by the side of said first rod; c. performing the axial shifting of said first correction wheel, in a direction transverse to the feed axis of said rods, in order to perform the correction of the twist effect of said first rod.
A method performed by an access point, AP, of a wireless communication network, which is able to perform peer-to-peer communication over the air with neighboring APs, for participating in a distributed clustering process directed at defining clusters of access points, APs, wherein each of the clusters comprises a cluster head, CH, and associated member nodes, the method characterized in that the AP: performs neighbor discovery to find a neighboring AP being a member of a discovered cluster that is different than the AP's own current cluster; requesting from the CH of the current cluster a marginal cost of the current cluster and requesting from the CH of the discovered cluster a marginal cost of the discovered cluster, whereby the marginal cost is defined as a cost function for the cluster including the AP minus the cost function for the cluster omitting the AP, and the cost function is based on one or more of frequency of handovers between APs of a cluster, inter cell interference between the APs of the cluster, path loss between the APs of the cluster, Euclidian distance between the APs of the cluster, and cell loads at APs of the cluster; comparing the marginal costs and if the marginal cost of the discovered cluster is less than the marginal cost of the current cluster, then leaving the current cluster and joining the discovered cluster; whereby the aforementioned steps are iterated by the AP until the marginal costs of each discovered cluster is higher than that of the current cluster. performs neighbor discovery to find a neighboring AP being a member of a discovered cluster that is different than the AP's own current cluster; requesting from the CH of the current cluster a marginal cost of the current cluster and requesting from the CH of the discovered cluster a marginal cost of the discovered cluster, whereby the marginal cost is defined as a cost function for the cluster including the AP minus the cost function for the cluster omitting the AP, and the cost function is based on one or more of frequency of handovers between APs of a cluster, inter cell interference between the APs of the cluster, path loss between the APs of the cluster, Euclidian distance between the APs of the cluster, and cell loads at APs of the cluster; comparing the marginal costs and if the marginal cost of the discovered cluster is less than the marginal cost of the current cluster, then leaving the current cluster and joining the discovered cluster; whereby the aforementioned steps are iterated by the AP until the marginal costs of each discovered cluster is higher than that of the current cluster.
Set of at least two guidance elements for a patient and several retaining treatment splints for the patient, wherein the several treatments splints are for the upper jaw and/or the several treatment splints are for the lower jaw, each for different treatment stages of an orthodontic treatment, wherein the guidance elements for a tooth have a tooth connection surface and at least one slot for receiving an orthodontic treatment arch, wherein the guidance elements are designed for cooperating with the orthodontic treatment splints with at least one engagement surface for positive engagement with a guiding pocket of the treatment splints in order to exert orthodontic torques and/or forces onto the tooth during the engagement.
A centre-hung pivot window with a stationary frame and a sash frame, said frames (2, 3) each comprising a top member (5, 9), a bottom member (6,10) and two side members (7, 8, 11, 12), each having a side surface intended to face a corresponding side surface of the other frame (2, 3) of the window, characterized in that at least one of the top (5, 9), bottom (6,10) or side members (7, 8, 11, 12) of at least one of said frames (2, 3) comprises an insulating abutment list (430a, 430b) on the side surface intended to face a side surface of another frame of the window, said insulating abutment list (430a, 430b) being made from a polystyrene material having a thermal conductivity of less than 0,08 W/(m•K), preferably less than 0,04 W/(m•K), and that said insulating abutment list (430a, 430b) is positioned where the sash frame comes into contact with the stationary frame during opening and closing of the window, and said insulating abutment list (430a, 430b) closing a gap between the sash frame and the stationary frame formed to make room for hinges, and where the insulating abutment list (430a, 430b) also covers at least a part of the exterior side of the respective frame member.