mhurhangee/ep-ind-claims huggingface dataset:
A method of fabricating a three-dimensional thin film device from a two-dimensional deposition of material, comprising the steps of: depositing a first release layer on a substrate; sputter depositing a thin film base layer on the first release layer; depositing an intermediate sacrificial layer on top of the base layer; patterning the sacrificial layer; sputter depositing a thin film second layer on top of the device layer and sacrificial layer, the base and second layers each being formed of a device material selected from the group consisting of: a device material which is of the same type of material for both layers, and a device material for the base layer which is of a different type of material from a device material for the second layer, the base and second layers each having first and second portions; etching the sacrificial layer and the first release layer to leave an empty pocket between the base layer and second layer and to release the device from the substrate; and inserting a mandrel into the pocket to transform the device into a desired three-dimensional shape; and heating the device while the mandrel is inserted into the pocket. depositing a first release layer on a substrate; sputter depositing a thin film base layer on the first release layer; depositing an intermediate sacrificial layer on top of the base layer; patterning the sacrificial layer; sputter depositing a thin film second layer on top of the device layer and sacrificial layer, the base and second layers each being formed of a device material selected from the group consisting of: a device material which is of the same type of material for both layers, and a device material for the base layer which is of a different type of material from a device material for the second layer, the base and second layers each having first and second portions; etching the sacrificial layer and the first release layer to leave an empty pocket between the base layer and second layer and to release the device from the substrate; and inserting a mandrel into the pocket to transform the device into a desired three-dimensional shape; and heating the device while the mandrel is inserted into the pocket.
A position and/or shape measurement method for a multi-core fiber, comprising: for each core of at least two cores in the multi-core fiber, determining a total change in optical length up to a point on the multi-core fiber, the total change in the optical lengths including an accumulation of all changes in optical length in that core for multiple segment lengths up to the point on the multi-core fiber, and determining the location or the pointing direction at the point on the multi-core fiber based on the total changes in optical length. for each core of at least two cores in the multi-core fiber, determining a total change in optical length up to a point on the multi-core fiber, the total change in the optical lengths including an accumulation of all changes in optical length in that core for multiple segment lengths up to the point on the multi-core fiber, and determining the location or the pointing direction at the point on the multi-core fiber based on the total changes in optical length.
A data processing device which processes electronic data used by a board working machine, the device comprising: a status information processing section which performs at least one of writing processing, editing processing, and reading processing of status information, with respect to the electronic data, wherein the status information illustrates an option selected from the following set of options: the electronic data has not been completed, i.e. a mandatory item to which the data value has not been input is present, the electronic data has been completed, and is waiting for a test by the board working machine, the electronic data has been tested by the board working machine, and is waiting for authorization, or the electronic data has been authorized. a status information processing section which performs at least one of writing processing, editing processing, and reading processing of status information, with respect to the electronic data, wherein the status information illustrates an option selected from the following set of options: the electronic data has not been completed, i.e. a mandatory item to which the data value has not been input is present, the electronic data has been completed, and is waiting for a test by the board working machine, the electronic data has been tested by the board working machine, and is waiting for authorization, or the electronic data has been authorized. the electronic data has not been completed, i.e. a mandatory item to which the data value has not been input is present, the electronic data has been completed, and is waiting for a test by the board working machine, the electronic data has been tested by the board working machine, and is waiting for authorization, or the electronic data has been authorized.
A method for receiving downlink control information, DCI, the method performed by a device and comprising: receiving the DCI via a downlink control channel, which is repeated on a first plurality of consecutive downlink subframes, from a base station, receiving a system information block, SIB, related to a plurality of subframe indexes from the base station, wherein the SIB related to the plurality of subframe indexes includes information dedicated for the device and is repeatedly received on a second plurality of consecutive downlink subframes within 80ms, based on that at least one downlink subframe, among the first plurality of downlink subframes, is used to receive the SIB related to the plurality of subframe indexes, determining that the DCI via the downlink control channel is not transmitted from the base station to the device on the at least one downlink subframe, wherein the reception of the DCI via the downlink control channel is stopped on the at least one downlink subframe by the device, wherein the SIB related to the plurality of subframe indexes is received on the at least one downlink subframe by the device, wherein residual reception of the DCI via the downlink control channel is attempted by the device after end of a transmission of the SIB related to the plurality of subframe indexes on the at least one downlink subframe, and wherein the at least one downlink subframe is at least one overlapped downlink subframe of the first plurality of consecutive downlink subframes and the second plurality of consecutive downlink subframes. receiving the DCI via a downlink control channel, which is repeated on a first plurality of consecutive downlink subframes, from a base station, receiving a system information block, SIB, related to a plurality of subframe indexes from the base station, wherein the SIB related to the plurality of subframe indexes includes information dedicated for the device and is repeatedly received on a second plurality of consecutive downlink subframes within 80ms, based on that at least one downlink subframe, among the first plurality of downlink subframes, is used to receive the SIB related to the plurality of subframe indexes, determining that the DCI via the downlink control channel is not transmitted from the base station to the device on the at least one downlink subframe, wherein the reception of the DCI via the downlink control channel is stopped on the at least one downlink subframe by the device, wherein the SIB related to the plurality of subframe indexes is received on the at least one downlink subframe by the device, wherein residual reception of the DCI via the downlink control channel is attempted by the device after end of a transmission of the SIB related to the plurality of subframe indexes on the at least one downlink subframe, and wherein the at least one downlink subframe is at least one overlapped downlink subframe of the first plurality of consecutive downlink subframes and the second plurality of consecutive downlink subframes.
Cultivation floor system with a floor on which plant containers are placed, which cultivation floor system comprises: - a watertight basin; - a water-permeable structure in the basin, which structure has a permeable top cloth which forms the top side of the floor on which plant containers are placed, which structure comprises one or more water-retaining layers, for example of granular material, - a watering installation (7,9,10,11,21) which is configured to supply water so that water is available for the plants in the plant containers, wherein the permeable top cloth has a relatively high porosity and small pores, preferably a woven top cloth with pores between the yarns of the top cloth, characterized in that a perforated film is placed between the permeable top cloth on the one hand and the one or more water-retaining layers on the other hand, which perforated film is made of impermeable film material which is provided with distributed perforations in such a manner that the film reduces the free evaporation surface for water from the water-retaining layer or layers, preferably by at least 50%, more preferably by at least 90%. - a watertight basin; - a water-permeable structure in the basin, which structure has a permeable top cloth which forms the top side of the floor on which plant containers are placed, which structure comprises one or more water-retaining layers, for example of granular material, - a watering installation (7,9,10,11,21) which is configured to supply water so that water is available for the plants in the plant containers,
A wireless communications device having opposing front and rear faces, comprising: an antenna configured for cellular telephone communications; a housing having a dielectric portion and a metal portion, wherein the metal portion forms part of the antenna and wherein the dielectric portion forms the rear face of the wireless communications device; a display having a cover glass and a capacitive touch sensor that detects touch input on the cover glass, wherein the display covers most of the front face of the wireless communications device, wherein the cover glass has an opening (19, 23), wherein the dielectric portion of the housing comprises glass, and wherein the metal portion of the housing surrounds the display and couples the display to the dielectric portion of the housing; and a speaker port in the housing between the front and rear faces. an antenna configured for cellular telephone communications; a housing having a dielectric portion and a metal portion, wherein the metal portion forms part of the antenna and wherein the dielectric portion forms the rear face of the wireless communications device; a display having a cover glass and a capacitive touch sensor that detects touch input on the cover glass, wherein the display covers most of the front face of the wireless communications device, wherein the cover glass has an opening (19, 23), wherein the dielectric portion of the housing comprises glass, and wherein the metal portion of the housing surrounds the display and couples the display to the dielectric portion of the housing; and a speaker port in the housing between the front and rear faces.
A loss compensation method, applied to a scenario where an Application Specific Integrated Circuit (ASIC) and an optical module comprising an optical transceiver are separated, characterized in that the loss compensation method comprises steps of: determining a first compensation coefficient of a transmitting end to equalize return interference and compensate for insert loss, wherein the return interference and insert loss occurs at interfaces of a connector and internal wirings of the optical module; and pre-compensating a first digital signal at the transmitting end based on the first compensation coefficient to obtain a first compensation signal, performing digital-to-analog conversion on the first compensation signal, and inputting the converted signal to the optical transceiver through the connector. determining a first compensation coefficient of a transmitting end to equalize return interference and compensate for insert loss, wherein the return interference and insert loss occurs at interfaces of a connector and internal wirings of the optical module; and pre-compensating a first digital signal at the transmitting end based on the first compensation coefficient to obtain a first compensation signal, performing digital-to-analog conversion on the first compensation signal, and inputting the converted signal to the optical transceiver through the connector.
An optical module, comprising a circuit board, a first chip, a second chip, and a lens assembly, the first chip and the second chip are arranged directly on the surface of the circuit board, and the lens assembly is arranged above the first chip and the second chip in a chip on board package where the first chip and the second chip are positioned between the lens assembly and the surface of the circuit board; the lens assembly comprises a first optic fiber insertion port, a second optic fiber insertion port, a first reflecting surface, and a second reflecting surface; and the first reflecting surface faces the first chip, the first reflecting surface faces the second reflecting surface, and the second reflecting surface faces the first optic fiber insertion port; there is a concave groove on the upper surface of the lens assembly, and the concave groove comprises a bump comprising a first pattern drafting face, a second pattern drafting face; the first pattern drafting face is on a side at an inclined angle from a plane where the circuit board is located; the second pattern drafting face is arranged opposite to the first pattern drafting face, and the second pattern drafting face is at an angle of 90° from the circuit board, and the second pattern drafting face is proximate to the first optic fiber insertion port; the first pattern drafting face and the second pattern drafting face intersect with each other at an upper surface of the bump; the first reflecting surface is the first pattern drafting face and the second reflecting surface is the second pattern drafting face. the first chip and the second chip are arranged directly on the surface of the circuit board, and the lens assembly is arranged above the first chip and the second chip in a chip on board package where the first chip and the second chip are positioned between the lens assembly and the surface of the circuit board; the lens assembly comprises a first optic fiber insertion port, a second optic fiber insertion port, a first reflecting surface, and a second reflecting surface; and the first reflecting surface faces the first chip, the first reflecting surface faces the second reflecting surface, and the second reflecting surface faces the first optic fiber insertion port; there is a concave groove on the upper surface of the lens assembly, and the concave groove comprises a bump comprising a first pattern drafting face, a second pattern drafting face; the first pattern drafting face is on a side at an inclined angle from a plane where the circuit board is located; the second pattern drafting face is arranged opposite to the first pattern drafting face, and the second pattern drafting face is at an angle of 90° from the circuit board, and the second pattern drafting face is proximate to the first optic fiber insertion port; the first pattern drafting face and the second pattern drafting face intersect with each other at an upper surface of the bump; the first reflecting surface is the first pattern drafting face and the second reflecting surface is the second pattern drafting face.
A tie system for use in a baler, the tie system comprising: a knotter table; a needle moveable relative to said knotter table; and a needle stabilizer attached to said knotter table, said needle stabilizer contacting said needle over a portion of the movement of said needle, wherein said needle stabilizer has at least one face that is oriented in a general direction of the movement of said needle and wherein said needle travels along a pathway, said needle stabilizer being positioned along at least one side of said pathway of said needle, characterized in that the needle stabilizer includes slots generally arranged for lateral adjustment of said needle stabilizer relative to said pathway, wherein a fine adjustment is provided in positioning the face by sliding the needle stabilizer within limits of slots.
A method for producing a hollow cigarette filter member having no fiber fragment textured on its inner cavity, said method comprising forming a hollow cigarette filter member by thermoforming a raw material containing a cellulose ester and an ester-based plasticizer without having the raw material undergo a fibrous shape, wherein the hollow cigarette filter member is formed by subjecting pellets containing the cellulose ester and the ester-based plasticizer to melt-extrusion molding.
A nutritional formulation containing a pea protein isolate, characterized in that the pea protein isolate: ∘ contains between 0.5 and 2% of free amino acids, the content of free amino acids being determined according to the method described in the description, ∘ has a viscosity at 20°C in water at 15% solids: ▪ from 11 to 18×10 -3 Pa.s. at a shear rate of 10 s -1, ▪ from 9 to 16×10 -3 Pa.s. at a shear rate of 40 s -1, and ▪ from 8 to 16×10 -3 Pa.s. at a shear rate of 600 s -1, the viscosity being determined according to the method described in the description, ∘ has a solubility in water at 20°C: ▪ from 30 to 40% in pH zones from 4 to 5 ▪ from 40 to 70% in pH zones from 6 to 8, the solubility being determined according to the method described in the description, ∘ has a degree of hydrolysis of between 5% and 10%, the degree of hydrolysis being determined according to the method described in the description, ∘ represents 20-100% of the total protein of the nutritional formulation. ∘ contains between 0.5 and 2% of free amino acids, the content of free amino acids being determined according to the method described in the description, ∘ has a viscosity at 20°C in water at 15% solids: ▪ from 11 to 18×10 -3 Pa.s. at a shear rate of 10 s -1, ▪ from 9 to 16×10 -3 Pa.s. at a shear rate of 40 s -1, and ▪ from 8 to 16×10 -3 Pa.s. at a shear rate of 600 s -1, the viscosity being determined according to the method described in the description, ▪ from 11 to 18×10 -3 Pa.s. at a shear rate of 10 s -1, ▪ from 9 to 16×10 -3 Pa.s. at a shear rate of 40 s -1, and ▪ from 8 to 16×10 -3 Pa.s. at a shear rate of 600 s -1, ∘ has a solubility in water at 20°C: ▪ from 30 to 40% in pH zones from 4 to 5 ▪ from 40 to 70% in pH zones from 6 to 8, the solubility being determined according to the method described in the description, ▪ from 30 to 40% in pH zones from 4 to 5 ▪ from 40 to 70% in pH zones from 6 to 8, ∘ has a degree of hydrolysis of between 5% and 10%, the degree of hydrolysis being determined according to the method described in the description, ∘ represents 20-100% of the total protein of the nutritional formulation.
A mixing and dispensing apparatus comprising: a first container having a main body portion retaining a first substance and a compartment with an internal passageway that is an opening formed in the compartment; a second container configured to retain a second substance, said second container being compressible and having a top end and a closed spout extending through the internal passageway, the closed spout positioned such to release the second substance into the main body portion of said first container, when the closed spout is opened; and a plunger placed within said second container, the plunger having a first end in communication with the top end of said second container and a second end aligned with the closed spout, whereby the second end of the plunger opens the closed spout when said second container is compressed to release the second substance into the main body portion of said first container. a first container having a main body portion retaining a first substance and a compartment with an internal passageway that is an opening formed in the compartment; a second container configured to retain a second substance, said second container being compressible and having a top end and a closed spout extending through the internal passageway, the closed spout positioned such to release the second substance into the main body portion of said first container, when the closed spout is opened; and a plunger placed within said second container, the plunger having a first end in communication with the top end of said second container and a second end aligned with the closed spout, whereby the second end of the plunger opens the closed spout when said second container is compressed to release the second substance into the main body portion of said first container.
A roll-up type capacitor which comprises a diffusion-preventing layer, a lower electrode layer, a dielectric layer and an upper electrode layer wherein a laminate in which the diffusion-preventing layer, the lower electrode layer, the dielectric layer and the upper electrode layer are laminated in this order is rolled-up so that the upper electrode layer is present on the inner side, and the diffusion-preventing layer is formed by an atomic layer deposition method.
A method for use in control of temperature, comprising performing sequentially the steps of: (i) measuring a first temperature of an object, a system or an environment using a first temperature sensor located at a first position at a first time, and measuring a second temperature of the object, the system or the environment using a second temperature sensor located at a second position at or around the first time; (ii) determining a temperature difference between the first and the second temperatures; the method is characterised in that the method further comprises performing sequentially the following steps: (iii) removing the second temperature sensor from the object, the system, or the environment; (iv) measuring a third temperature of the object, the system or the environment using the first temperature sensor at a second time, without the second temperature sensor within the object, system or environment; (v) using the third temperature and the determined temperature difference to determine an inferred temperature at the second position at the second time; wherein the determined temperature at the second position at the second time is used for controlling a plant for heating and/or cooling the object, system or environment until the inferred temperature at the second position reaches a desired temperature. (i) measuring a first temperature of an object, a system or an environment using a first temperature sensor located at a first position at a first time, and measuring a second temperature of the object, the system or the environment using a second temperature sensor located at a second position at or around the first time; (ii) determining a temperature difference between the first and the second temperatures; the method is characterised in that the method further comprises performing sequentially the following steps: (iii) removing the second temperature sensor from the object, the system, or the environment; (iv) measuring a third temperature of the object, the system or the environment using the first temperature sensor at a second time, without the second temperature sensor within the object, system or environment; (v) using the third temperature and the determined temperature difference to determine an inferred temperature at the second position at the second time; (iii) removing the second temperature sensor from the object, the system, or the environment; (iv) measuring a third temperature of the object, the system or the environment using the first temperature sensor at a second time, without the second temperature sensor within the object, system or environment; (v) using the third temperature and the determined temperature difference to determine an inferred temperature at the second position at the second time;