mhurhangee/ep-ind-claims huggingface dataset:
A print head configured to discharge liquid from a nozzle, comprising: a memory circuit that is configured to store individual information of the print head and individual activation information based on the individual information; a communication control circuit that is configured to control communication between the print head and an outside; a discharge control circuit that is configured to control discharge of the liquid; and a limiting circuit that is configured to limit liquid discharge control by the discharge control circuit, wherein when a signal according to the individual activation information is input from the outside, the limiting circuit is configured to change a limitation of liquid discharge control by the discharge control circuit, and wherein the memory circuit is configured to store discharge control information that is information for limiting liquid discharge control by the discharge control circuit, and the discharge control information is rewritten when a signal according to the individual activation information is input from the outside. a memory circuit that is configured to store individual information of the print head and individual activation information based on the individual information; a communication control circuit that is configured to control communication between the print head and an outside; a discharge control circuit that is configured to control discharge of the liquid; and a limiting circuit that is configured to limit liquid discharge control by the discharge control circuit, wherein when a signal according to the individual activation information is input from the outside, the limiting circuit is configured to change a limitation of liquid discharge control by the discharge control circuit, and wherein the memory circuit is configured to store discharge control information that is information for limiting liquid discharge control by the discharge control circuit, and the discharge control information is rewritten when a signal according to the individual activation information is input from the outside.
A power save method, wherein the method comprises: sending, by an access point, AP, device, frames of a current transmit opportunity, TXOP, to a station, STA, device, so that when a TXOP power save indication of a current frame is power save allowed, the STA device determines whether to enter a doze state according to a judgment result for a doze condition, wherein each frame comprises a TXOP power save indication of the frame; and only allowing, in a same TXOP, the value of the TXOP power save indication of the frames to change once. sending, by an access point, AP, device, frames of a current transmit opportunity, TXOP, to a station, STA, device, so that when a TXOP power save indication of a current frame is power save allowed, the STA device determines whether to enter a doze state according to a judgment result for a doze condition, wherein each frame comprises a TXOP power save indication of the frame; and only allowing, in a same TXOP, the value of the TXOP power save indication of the frames to change once.
Grounding nuts chain for arrangement on a control cabinet, a perforated steel plate, a perforated profile or the like, wherein the grounding nuts chain comprises multiple nuts, wherein the nuts are arranged spaced from one another, wherein respectively adjacently-arranged nuts are connected to one another via a connecting element, and a distance of the nuts from one another is adapted to a hole distance of recesses of the control cabinet, of the perforated steel plate or the like, so that the nuts of the grounding nuts chain can be arranged on the recesses, characterized in that the connecting element comprises a holding leg so that the connecting element can be arranged on attachment portion of the control cabinet, of the perforated steel plate or the like in a clamping manner, and in that the connecting element is configured in the form of an S-profile, wherein the holding leg merges into an abutting leg, wherein the attachment portion can be secured between the abutting leg and the holding leg in a clamping manner, wherein the abutting leg merges into a receiving leg and wherein the nuts are arranged between the receiving leg and the abutting leg.
A wireless communication device, comprising: a processor; a scan radio including a receiver coupled to the processor; and a data radio including a transmitter coupled to the processor; wherein: the receiver of the scan radio is adapted to scan frequency scanning signals; the processor is adapted to adjust a transmission rate from the data radio depending on a frequency scanning signal receiving ratio, which is a number of received frequency scanning signals divided by a number of generated frequency scanning signals; and the processor is further adapted to determine a transmission schedule for the transmitter of the data radio; further wherein: the transmitter of the data radio is adapted to perform transmissions according to the transmission schedule; and the receiver of the scan radio is adapted to receive, between transmissions from the transmitter of the data radio, the frequency scanning signals. a processor; a scan radio including a receiver coupled to the processor; and a data radio including a transmitter coupled to the processor; wherein: the receiver of the scan radio is adapted to scan frequency scanning signals; the processor is adapted to adjust a transmission rate from the data radio depending on a frequency scanning signal receiving ratio, which is a number of received frequency scanning signals divided by a number of generated frequency scanning signals; and the processor is further adapted to determine a transmission schedule for the transmitter of the data radio; the receiver of the scan radio is adapted to scan frequency scanning signals; the processor is adapted to adjust a transmission rate from the data radio depending on a frequency scanning signal receiving ratio, which is a number of received frequency scanning signals divided by a number of generated frequency scanning signals; and the processor is further adapted to determine a transmission schedule for the transmitter of the data radio; further wherein: the transmitter of the data radio is adapted to perform transmissions according to the transmission schedule; and the receiver of the scan radio is adapted to receive, between transmissions from the transmitter of the data radio, the frequency scanning signals. the transmitter of the data radio is adapted to perform transmissions according to the transmission schedule; and the receiver of the scan radio is adapted to receive, between transmissions from the transmitter of the data radio, the frequency scanning signals.
A system for installing a liner (22,36) in an underground utility structure, having an interior surface, comprising: a drum supporting a length of dry liner (22,36) to be inverted at an internal pressure; and a controller configured to (i) control the speed that said drum rotates to limit a speed at which said dry liner is installed into said utility structure, and to (ii) control the internal pressure; wherein said controller is configured to allow said dry liner (22,36) to invert into a utility structure and the controller is configured to limit the inversion rate of the dry liner (22,36) to less than or equal to 0.15m (0.5 feet) per minute. a drum supporting a length of dry liner (22,36) to be inverted at an internal pressure; and a controller configured to (i) control the speed that said drum rotates to limit a speed at which said dry liner is installed into said utility structure, and to (ii) control the internal pressure; wherein said controller is configured to allow said dry liner (22,36) to invert into a utility structure and the controller is configured to limit the inversion rate of the dry liner (22,36) to less than or equal to 0.15m (0.5 feet) per minute.
An image forming apparatus, comprising: a transferring apparatus to transfer a visible image to a printing medium, a plurality of fusing rollers (61, 62) that fuse a developer at the printing medium; and a transporting guide configured to guide the printing medium being transported toward the plurality of fusing rollers (61, 62), wherein the transporting guide is disposed between the transferring apparatus and the plurality of fusing rollers (61, 62) and is movably installed to move in between a first position to guide at least a part of the printing medium and a second position spaced apart by a predetermined distance from the first position, characterised in that in the second position, contact between the transporting guide and the printing medium is reduced. a transferring apparatus to transfer a visible image to a printing medium, a plurality of fusing rollers (61, 62) that fuse a developer at the printing medium; and a transporting guide configured to guide the printing medium being transported toward the plurality of fusing rollers (61, 62), wherein the transporting guide is disposed between the transferring apparatus and the plurality of fusing rollers (61, 62) and is movably installed to move in between a first position to guide at least a part of the printing medium and a second position spaced apart by a predetermined distance from the first position, characterised in that in the second position, contact between the transporting guide and the printing medium is reduced.
Method for aircraft taxiing assistance, the method comprising the following steps: - acquiring a first signal corresponding to the runway and to its environment, by first acquisition means placed on the aircraft and comprising a first sensor in a first spectral band in the infrared range; - acquiring a second signal corresponding to said runway and to said environment, by second acquisition means placed on the aircraft and comprising a second sensor in a second spectral band in the visible range, said second spectral band being distinct and sufficiently far from the first for the two sensors to provide nonredundant information; - providing a database containing the signatures of elements which belong to the runway or are potentially located on the runway in the first and second spectral bands of the sensors (8, 12), and a symbolic graphical representation of these elements; - analysing, by means of a processing unit, the first and second signals acquired and, based on the results of this analysis, generating, on a screen that can be seen by the pilot, a background image of optimum quality, the analysis determining the construction of the background image from one of said signals or from a combination of said signals, depending on the brightness and/or weather conditions; - detecting the possible presence on the runway of one or more elements from the first and/or second signals and by correlation with the signatures contained in the database; - inlaying on the background image, on the screen, the symbolic graphical representation of the detected element(s). - acquiring a first signal corresponding to the runway and to its environment, by first acquisition means placed on the aircraft and comprising a first sensor in a first spectral band in the infrared range; - acquiring a second signal corresponding to said runway and to said environment, by second acquisition means placed on the aircraft and comprising a second sensor in a second spectral band in the visible range, said second spectral band being distinct and sufficiently far from the first for the two sensors to provide nonredundant information; - providing a database containing the signatures of elements which belong to the runway or are potentially located on the runway in the first and second spectral bands of the sensors (8, 12), and a symbolic graphical representation of these elements; - analysing, by means of a processing unit, the first and second signals acquired and, based on the results of this analysis, generating, on a screen that can be seen by the pilot, a background image of optimum quality, the analysis determining the construction of the background image from one of said signals or from a combination of said signals, depending on the brightness and/or weather conditions; - detecting the possible presence on the runway of one or more elements from the first and/or second signals and by correlation with the signatures contained in the database; - inlaying on the background image, on the screen, the symbolic graphical representation of the detected element(s).
A method for producing a fibrous cheese product, in particular to be consumed while hot, having the following steps: a) providing a cheese source material having a minimum weight proportion of 50 wt.-% of bacterially matured cheese and/or pasta filata type cheese; b) heating, kneading and stretching the cheese material and obtaining a cheese mass; c) forming the hot cheese mass; d) cooling the cheese mass, the hot cheese mass not being cooled in contact with salt water, preferably without being in contact with water, as well as the cooled cheese mass not being stored in contact with salt water, in particular without being in contact with water, characterized in that before and/or during the implementation of step b), whey protein and/or milk protein is added in powder form as a source of protein, the weight proportion of the source of protein being between 0.5 wt.-% and 7 wt.-%, in relation to the cheese mass, and in that step b) is carried out until the obtained cheese mass has a fibrous texture, and in that no emulsifying salts are added before, while or after implementing step b), and in that the cheese source material has a weight proportion of less than 20 wt.-% of curd, in particular of 0 wt.-% (without curd). a) providing a cheese source material having a minimum weight proportion of 50 wt.-% of bacterially matured cheese and/or pasta filata type cheese; b) heating, kneading and stretching the cheese material and obtaining a cheese mass; c) forming the hot cheese mass; d) cooling the cheese mass, the hot cheese mass not being cooled in contact with salt water, preferably without being in contact with water, as well as the cooled cheese mass not being stored in contact with salt water, in particular without being in contact with water,
A gypsum slurry mixing and dispensing assembly, comprising: a mixer adapted to agitate water and calcined gypsum to form an aqueous calcined gypsum slurry; a slurry distributor (100, 200, 700) in fluid communication with the mixer, the slurry distributor (100, 200, 700) including: an entry segment defining an inlet opening configured to receive therethrough a flow of the aqueous calcined gypsum slurry from the mixer in an inlet direction (52, 250), a shaped duct in fluid communication with the inlet opening, and an outlet (114, 730) defining an outlet opening (104, 404, 504, 604, 704) in fluid communication with the shaped duct, wherein the shaped duct includes a parabolic guide surface adapted to redirect the flow of the aqueous calcined gypsum slurry moving from the inlet opening through the shaped duct to the outlet opening (104, 404, 504, 604, 704) from the inlet direction (52, 250) to an outlet direction (54, 252), characterised in that the shaped duct has a cross sectional flow area that increases in a direction from the inlet opening toward the outlet opening (104, 404, 504, 604, 704). a mixer adapted to agitate water and calcined gypsum to form an aqueous calcined gypsum slurry; a slurry distributor (100, 200, 700) in fluid communication with the mixer, the slurry distributor (100, 200, 700) including: an entry segment defining an inlet opening configured to receive therethrough a flow of the aqueous calcined gypsum slurry from the mixer in an inlet direction (52, 250), a shaped duct in fluid communication with the inlet opening, and an outlet (114, 730) defining an outlet opening (104, 404, 504, 604, 704) in fluid communication with the shaped duct, wherein the shaped duct includes a parabolic guide surface adapted to redirect the flow of the aqueous calcined gypsum slurry moving from the inlet opening through the shaped duct to the outlet opening (104, 404, 504, 604, 704) from the inlet direction (52, 250) to an outlet direction (54, 252), characterised in that the shaped duct has a cross sectional flow area that increases in a direction from the inlet opening toward the outlet opening (104, 404, 504, 604, 704). an entry segment defining an inlet opening configured to receive therethrough a flow of the aqueous calcined gypsum slurry from the mixer in an inlet direction (52, 250), a shaped duct in fluid communication with the inlet opening, and an outlet (114, 730) defining an outlet opening (104, 404, 504, 604, 704) in fluid communication with the shaped duct, wherein the shaped duct includes a parabolic guide surface adapted to redirect the flow of the aqueous calcined gypsum slurry moving from the inlet opening through the shaped duct to the outlet opening (104, 404, 504, 604, 704) from the inlet direction (52, 250) to an outlet direction (54, 252), characterised in that the shaped duct has a cross sectional flow area that increases in a direction from the inlet opening toward the outlet opening (104, 404, 504, 604, 704).
A method for segmenting a cellular image, the method comprising: acquiring a cellular image; enhancing the cellular image using a generative adversarial network to obtain an enhanced cellular image; and segmenting the enhanced cellular image using a hierarchical fully convolutional network for image segmentation to obtain cytoplasm and zona pellucida areas in the cellular image; wherein the generative adversarial network is trained by: collecting a dataset of cellular images; constructing a dataset for neural network training using labeled images in the dataset of cellular images, the labeled images including cytoplasm and zona pellucida areas for oocyte images, or the labeled images including cytoplasm, zona pellucida, and nucleus areas for zygote images; enhancing smoothness and edges of cytoplasm and nucleus areas to obtain an enhanced training dataset, wherein the enhancing comprises image smoothing and edge enhancement, the image smoothing referring to removing high-frequency information of the cellular image, and the edge enhancement requiring detecting areas of high-frequency and large gradient magnitudes; and training the generative adversarial network using the enhanced training dataset. acquiring a cellular image; enhancing the cellular image using a generative adversarial network to obtain an enhanced cellular image; and segmenting the enhanced cellular image using a hierarchical fully convolutional network for image segmentation to obtain cytoplasm and zona pellucida areas in the cellular image; collecting a dataset of cellular images; constructing a dataset for neural network training using labeled images in the dataset of cellular images, the labeled images including cytoplasm and zona pellucida areas for oocyte images, or the labeled images including cytoplasm, zona pellucida, and nucleus areas for zygote images; enhancing smoothness and edges of cytoplasm and nucleus areas to obtain an enhanced training dataset, wherein the enhancing comprises image smoothing and edge enhancement, the image smoothing referring to removing high-frequency information of the cellular image, and the edge enhancement requiring detecting areas of high-frequency and large gradient magnitudes; and training the generative adversarial network using the enhanced training dataset.
A biaxially oriented polyester film, where the polyester is composed of at least 80 % by weight of ethylene-terephthalate-derived units and of from 1 to 8 % by weight of ethylene-isophthalate-derived units (based in each case on the total weight of polyester), which comprises particles whose median diameter d 50 is from 0.1 to 2.0 μm and particles whose median diameter d 50 is from > 2.5 μm to < 8 μm.
Method for the production of a dressing tool for a grinding tool, preferably for a grinding worm, wherein the dressing tool comprises at least one, preferably ring-shaped designed projection which extends radially (r), wherein the method comprises the steps: a) Production of a shaped ring, which comprises a number of recesses at a radial inner area which number corresponds to the number of projections and which recesses are designed congruent to the projections; b) Placing of abrasive material, especially of diamond powder, in the recesses; c) Creation of a chemical or electro-chemical coating in the recesses so that the abrasive material is fixed in the region of the surface of the recesses; d) Removal of the shaped ring, to obtain the so arose dressing tool; wherein a support element is placed prior or during step b) or prior or during step c) in the region of the radial inner area which support element is material joined integrally during step c) at least partially with the arising dressing tool by the coating, characterized in that as support element an open lattice structure with openings is used so that especially the radial inner area is not radially closed by the support element. a) Production of a shaped ring, which comprises a number of recesses at a radial inner area which number corresponds to the number of projections and which recesses are designed congruent to the projections; b) Placing of abrasive material, especially of diamond powder, in the recesses; c) Creation of a chemical or electro-chemical coating in the recesses so that the abrasive material is fixed in the region of the surface of the recesses; d) Removal of the shaped ring, to obtain the so arose dressing tool;
An oblique fastening apparatus configured to be driven by a clamping tool for clamping and positioning a workpiece, said oblique fastening apparatus comprising a first clamping unit, a second clamping unit and a guide unit, said first clamping unit including a first main body, a first guide member connected to said first main body, a first clamping member extending transversely from said first main body in a direction opposite to said first guide member, and a first oblique fastener passage that is inclined with respect to said first main body and that extends through said first guide member and said first clamping member, said second clamping unit including a second main body and a second clamping member extending transversely from said second main body in a direction similar to that of said first clamping member, said guide unit including a first guide structure formed on one of said first and second main bodies (21, 31), and a second guide structure formed on the other one of said first and second main bodies (21, 31) and cooperating with said first guide structure to guide relative movement of said first and second main bodies (21, 31), characterized by: said first oblique fastener passage having a first discharge section located at a junction of said first guide member and said first clamping member and communicating with ambient atmosphere; said second main body being configured to be driven by the clamping tool to move relative to said first main body so that said first and second clamping members (23, 33) can cooperate with each other to clamp the workpiece therebetween. said first oblique fastener passage having a first discharge section located at a junction of said first guide member and said first clamping member and communicating with ambient atmosphere; said second main body being configured to be driven by the clamping tool to move relative to said first main body so that said first and second clamping members (23, 33) can cooperate with each other to clamp the workpiece therebetween.