mhurhangee/ep-ind-claims huggingface dataset:
A system comprising an intraocular ring injector with a container configured so that the intraocular ring injector is housed in the container, for injecting an intraocular ring into an eye for retaining a shape of a lens capsule, the intraocular ring injector comprising: a hollow body having a hollow part in which the intraocular ring is housed; a plunger that moves through an inside of the hollow body in an axial direction of the hollow body; and a pushing member that pushes out the intraocular ring by moving together with the plunger through the inside of the hollow body and toward front part of the hollow body in the axial direction, wherein the container has a moving mechanism of moving the hollow body and the plunger relatively in the axial direction, while housing the intraocular ring injector in the container. the intraocular ring injector comprising: a hollow body having a hollow part in which the intraocular ring is housed; a plunger that moves through an inside of the hollow body in an axial direction of the hollow body; and a pushing member that pushes out the intraocular ring by moving together with the plunger through the inside of the hollow body and toward front part of the hollow body in the axial direction, a hollow body having a hollow part in which the intraocular ring is housed; a plunger that moves through an inside of the hollow body in an axial direction of the hollow body; and a pushing member that pushes out the intraocular ring by moving together with the plunger through the inside of the hollow body and toward front part of the hollow body in the axial direction, wherein the container has a moving mechanism of moving the hollow body and the plunger relatively in the axial direction, while housing the intraocular ring injector in the container.
A method, uniquely and successively iterated for each of a plurality of load cells, comprising: identifying a vibrational frequency produced on a load cell (121 or 405) (step 210) when a state of the load cell (121 or 405) indicates that the load cell (121 or 405) is likely not in use (step 211); recognizing the vibrational frequency as noise (step 220); and adjusting the load cell (121 or 405) to remove the vibrational frequency from signals produced by the load cell (121 or 405) when the vibrational frequency is present (step 230). identifying a vibrational frequency produced on a load cell (121 or 405) (step 210) when a state of the load cell (121 or 405) indicates that the load cell (121 or 405) is likely not in use (step 211); recognizing the vibrational frequency as noise (step 220); and adjusting the load cell (121 or 405) to remove the vibrational frequency from signals produced by the load cell (121 or 405) when the vibrational frequency is present (step 230).
An oral controlled release dosage form comprising: therapeutically effective amount of at least one active substance having an aqueous solubility of greater than 1 mg/ml, at least one non-polymeric release retardant, and at least one pH independent non-swelling release retardant, the active substance along with the non-polymeric release retardant is in the form of granules wherein the granule is prepared by melt granulation and the said dosage form provides controlled release of the active agent with reduced initial burst release.
A method of local decision making in a communications system comprising an operator device in communication with a plurality of gateway devices and a plurality of edge devices in communication with each gateway device, the method comprising: receiving encrypted data at a gateway device from an edge device for transmission to the operator device, wherein the encrypted data is encrypted with a public key such that it can be decrypted with a corresponding private key and a function of the data can be computed without the private key using Functional Encryption, FE, wherein the gateway device does not have access to the private key; applying, at the gateway device, an operator to the encrypted data to compute a value of a function of the input data using FE without decrypting the encrypted data, the operator being associated with a decryption key; determining, at the gateway device, an action to be taken based on the value; and taking the determined action. receiving encrypted data at a gateway device from an edge device for transmission to the operator device, wherein the encrypted data is encrypted with a public key such that it can be decrypted with a corresponding private key and a function of the data can be computed without the private key using Functional Encryption, FE, wherein the gateway device does not have access to the private key; applying, at the gateway device, an operator to the encrypted data to compute a value of a function of the input data using FE without decrypting the encrypted data, the operator being associated with a decryption key; determining, at the gateway device, an action to be taken based on the value; and taking the determined action.
A thermostat tap for gas-powered ovens comprising - a body (1.1) having a gas inlet (1.1.1) and one or more gas outlets (1.1.2); - a thermostat system (1.7) configured to adjust the gas passage according to a set temperature, which comprises a diaphragm (1.7.1), a diaphragm shaft (1.7.2), a diaphragm gasket (1.7.3), a pressure spring (1.7.4), a diaphragm washer (1.7.5), a diaphragm O-ring (1.7.6), and a pinion shaft (1.7.7); - a motor (1.3) which is driven by an electronic circuit connected to the body (1.1), which comprises a shaft (1.3.1), the shaft (1.3.1) comprising • a diaphragm pin (1.3.1.1) moving the thermostat diaphragm (1.7.1) and • a stop pin (1.3.1.2); the thermostat tap further comprising - a solenoid coil (1.2) connected to the body (1.1); - at least one electromagnet (2.2); - an adjustment screw (1.9); - a stop means (1.4) for stopping the motor (1.3); - a plastic carrier (1.5) carrying the stop means (1.4), so as to isolate said stop means (1.4) from the body (1.1) of the thermostat tap; and wherein the stop pin (1.3.1.2) provides the contact between the stop means (1.4) and the shaft (1.3.1) of the motor (1.3). - a body (1.1) having a gas inlet (1.1.1) and one or more gas outlets (1.1.2); - a thermostat system (1.7) configured to adjust the gas passage according to a set temperature, which comprises a diaphragm (1.7.1), a diaphragm shaft (1.7.2), a diaphragm gasket (1.7.3), a pressure spring (1.7.4), a diaphragm washer (1.7.5), a diaphragm O-ring (1.7.6), and a pinion shaft (1.7.7); - a motor (1.3) which is driven by an electronic circuit connected to the body (1.1), which comprises a shaft (1.3.1), the shaft (1.3.1) comprising • a diaphragm pin (1.3.1.1) moving the thermostat diaphragm (1.7.1) and • a stop pin (1.3.1.2); • a diaphragm pin (1.3.1.1) moving the thermostat diaphragm (1.7.1) and • a stop pin (1.3.1.2); - a solenoid coil (1.2) connected to the body (1.1); - at least one electromagnet (2.2); - an adjustment screw (1.9); - a stop means (1.4) for stopping the motor (1.3); - a plastic carrier (1.5) carrying the stop means (1.4), so as to isolate said stop means (1.4) from the body (1.1) of the thermostat tap;
A method of reducing corrosion of a metal material, wherein an n-type semiconductor substance having conductivity for generating an anode electric current by thermal excitation is coated or adhered on a surface of a metal material forming peripheral piping around a nuclear reactor to be exposed to a hot water with no light irradiation in a nuclear power plant and wherein the n-type semiconductor is a TiO 2 having a band gap of 3 eV or 3.2 eV, and an adhesion amount of adhering or coating the TiO 2 on the metal material is 60 μg/cm 2 or more on the metal surface when the metal material is a stainless steel and is 30 μg/cm 2 or more on an alloy surface when the metal material is a nickel-based alloy.
Use of an adhesive in a single- or double-sided adhesive tape, the coatweight (coating thickness) of the adhesive being between 10 and 50 g/m 2, the pressure sensitive adhesive which is at least 95 wt%, preferably 98 wt%, biobased comprising as its base polymer natural rubber and also tackifier resins composed of biobased raw materials, the fraction of the tackifier resins being 80 to 120 phr, and also at least one biobased microparticulate adjuvant which is insoluble in the base polymer or the tackifier resins and is noncrosslinking with the base polymer or the tackifier resins and which is in the form of particles and has a bulk density of at least 200 g/l, and in which at least 65% of the particles have a particle diameter of less than 32 μm, the fraction of the adjuvant relative to the overall pressure sensitive adhesive being between greater than 0 wt% and up to 20 wt%, the adjuvant used being plant and/or animal raw materials.
An image sensor having a plurality of pixels arranged in an array, selection means providing select signals for selecting individual pixels in the array, and shutter control means for transmitting a shutter signal to the pixels, wherein each said pixel includes a photosensor device, a readout circuit, a transfer switch connected between the photosensor device and the readout circuit, and a control means for triggering the pixel, characterized by the control means being connected to receive a shutter signal, a row select signal and a column select signal, and being connected to the transfer switch to control switching thereof, whereby the pixel is constructed and arranged to sense incident light only when in receipt of both a shutter signal and the select signals, whereby pixels in said array can be triggered individually to capture light at different times.
A method for resource allocation in a radio communication system, comprising: monitoring, by use of a processor, for a transmission control in a given Orthogonal Frequency-Division Multiplexing, OFDM, symbol of a first slot based on a transmission control policy, wherein the transmission control policy comprises the given OFDM symbol position, control frequency ranges, and a slot type indicator, wherein the control frequency ranges specify one or more frequency ranges that include the transmission control, wherein a frequency range comprises a plurality of subcarriers, wherein the slot type indicator specifies whether the transmission control is a slot transmission control or a mini-slot transmission control, wherein the slot is a time- and frequency-based unit comprising a plurality of OFDM symbols and a plurality of subcarriers, wherein the slot comprises one or more mini-slots, and wherein the mini-slot comprises one or more OFDM symbols including each frequency range; receiving the transmission control in the given OFDM symbol; determining available time frequency resources, TFR, for a data transmission based on at least a symbol position of the given OFDM symbol and the transmission control policy, wherein the TFR comprise at least one OFDM symbol and at least one frequency range; and communicating the data transmission in the TFR, wherein the method further comprises: receiving a resource marker that indicates a reserved OFDM symbol; and omitting data transmission in the reserved OFDM symbol. monitoring, by use of a processor, for a transmission control in a given Orthogonal Frequency-Division Multiplexing, OFDM, symbol of a first slot based on a transmission control policy, wherein the transmission control policy comprises the given OFDM symbol position, control frequency ranges, and a slot type indicator, wherein the control frequency ranges specify one or more frequency ranges that include the transmission control, wherein a frequency range comprises a plurality of subcarriers, wherein the slot type indicator specifies whether the transmission control is a slot transmission control or a mini-slot transmission control, wherein the slot is a time- and frequency-based unit comprising a plurality of OFDM symbols and a plurality of subcarriers, wherein the slot comprises one or more mini-slots, and wherein the mini-slot comprises one or more OFDM symbols including each frequency range; receiving the transmission control in the given OFDM symbol; determining available time frequency resources, TFR, for a data transmission based on at least a symbol position of the given OFDM symbol and the transmission control policy, wherein the TFR comprise at least one OFDM symbol and at least one frequency range; and communicating the data transmission in the TFR, receiving a resource marker that indicates a reserved OFDM symbol; and omitting data transmission in the reserved OFDM symbol.
Valve arrangement for brake control of a vehicle braking system which is operated using pressure medium, having at least one relay valve which is arranged in a housing and at least one solenoid valve (14, 18, 23) for controlling the relay valve, wherein the relay valve has an axially displaceable relay valve piston with an annular sealing seat which can be acted on with a control pressure which is directed into a control pressure chamber and which is adjusted by means of the at least one solenoid valve (14, 18, 23), having an axially displaceable plate valve having a radial sealing face, and having an insert which is secured to the housing and which separates an operating chamber (54, 55) from a pressure chamber and which has an annular sealing seat which is arranged coaxially relative to the annular sealing seat of the relay valve piston, wherein the sealing seats (41, 51) mentioned cooperate simultaneously or alternately with the radial sealing face of the plate valve in such a manner that, when control pressure is applied, a storage pressure from the pressure chamber reaches the operating chamber (54, 55) at the side of the relay valve piston which is remote from the control pressure chamber, and, when the control pressure is relieved, the pressure in the operating chamber (54, 55) is returned to a pressure medium container or is vented to the environment, characterised in that the housing has at least one cylindrical receiving member (43; 54, 55; 65) which is closed at one side and which forms the control pressure chamber, the operating chamber (54, 55) and the pressure chamber for arrangement of the relay valve piston, the insert which is secured to the housing and a carrier element for the plate valve which can be axially introduced into the receiving member (43; 54, 55; 65) in the sequence mentioned and fixed therein.
A method for the diagnosis of prostate cancer, comprising the steps of a) analysing the expression levels of at least two nucleic acids in a sample of a patient, wherein said at least two nucleic acids are selected from at least two groups of nucleic acids, wherein said groups consist of: Group 1: SEQ ID NO 1 Group 2: a splice variant of Ensembl gene ID ENSG00000245750.3 selected from the group consisting of SEQ ID NO: 4, 5, 6, 7, 8, 9 and 10 Group 3: a splice variant of Ensembl gene ID ENSG00000255545.3 selected from the group SEQ ID NO: 26, 27, 28 and 29 Group 4: SEQ ID NO 3 and 11 Group 5: SEQ ID NO 12 Group 6: SEQ ID NO 24 Group 7: SEQ ID NO 36 Group 8: SEQ ID NO 38 b) wherein, if the combination of the expression level of said at least two nucleic acids or the expression level of said nucleic acids from all Groups 1-8 is above a defined threshold value, the sample is designated as prostate cancer positive. a) analysing the expression levels of at least two nucleic acids in a sample of a patient, wherein said at least two nucleic acids are selected from at least two groups of nucleic acids, wherein said groups consist of: Group 1: SEQ ID NO 1 Group 2: a splice variant of Ensembl gene ID ENSG00000245750.3 selected from the group consisting of SEQ ID NO: 4, 5, 6, 7, 8, 9 and 10 Group 3: a splice variant of Ensembl gene ID ENSG00000255545.3 selected from the group SEQ ID NO: 26, 27, 28 and 29 Group 4: SEQ ID NO 3 and 11 Group 5: SEQ ID NO 12 Group 6: SEQ ID NO 24 Group 7: SEQ ID NO 36 Group 8: SEQ ID NO 38 Group 1: SEQ ID NO 1 Group 2: a splice variant of Ensembl gene ID ENSG00000245750.3 selected from the group consisting of SEQ ID NO: 4, 5, 6, 7, 8, 9 and 10 Group 3: a splice variant of Ensembl gene ID ENSG00000255545.3 selected from the group SEQ ID NO: 26, 27, 28 and 29 Group 4: SEQ ID NO 3 and 11 Group 5: SEQ ID NO 12 Group 6: SEQ ID NO 24 Group 7: SEQ ID NO 36 Group 8: SEQ ID NO 38 b) wherein, if the combination of the expression level of said at least two nucleic acids or the expression level of said nucleic acids from all Groups 1-8 is above a defined threshold value, the sample is designated as prostate cancer positive.
A computing device for attesting itself to a communication partner that is a separate device from the computing device, the computing device comprising: a communication port configured to receive an attestation request from the communication partner; and an application-specific integrated circuit ASIC configured to: receive the attestation request from the communication port, the attestation request including a nonce generated at the communication partner; generate a verification value, the verification value being a computation result of a predefined function performed N iterations taking the nonce as an input value; capture data comprising two or more intermediate results of computation of the predefined function on the ASIC; and send the verification value and the captured data to the communication port to be transmitted back to the communication partner, wherein the verification value and the captured data are configured to cause the communication partner to perform the predefined function taking the captured data as an input value and to perform the predefined function taking the nonce as an input value to determine whether the received verification value is equal to an expected value. a communication port configured to receive an attestation request from the communication partner; and an application-specific integrated circuit ASIC configured to: receive the attestation request from the communication port, the attestation request including a nonce generated at the communication partner; generate a verification value, the verification value being a computation result of a predefined function performed N iterations taking the nonce as an input value; capture data comprising two or more intermediate results of computation of the predefined function on the ASIC; and send the verification value and the captured data to the communication port to be transmitted back to the communication partner, wherein the verification value and the captured data are configured to cause the communication partner to perform the predefined function taking the captured data as an input value and to perform the predefined function taking the nonce as an input value to determine whether the received verification value is equal to an expected value. receive the attestation request from the communication port, the attestation request including a nonce generated at the communication partner; generate a verification value, the verification value being a computation result of a predefined function performed N iterations taking the nonce as an input value; capture data comprising two or more intermediate results of computation of the predefined function on the ASIC; and send the verification value and the captured data to the communication port to be transmitted back to the communication partner, wherein the verification value and the captured data are configured to cause the communication partner to perform the predefined function taking the captured data as an input value and to perform the predefined function taking the nonce as an input value to determine whether the received verification value is equal to an expected value.
A septum for use with a container, the septum comprising: a first surface; a membrane coupled to at least a portion of the first surface; a second surface; and ribs extending between the membrane and the second surface, a height of each rib defined between the membrane and the second surface, a first end of each rib coupled to the membrane and a second end of each rib extending uninterrupted along a respective length of each rib between a first portion of the second surface and a second portion of the second surface, wherein the ribs are in parallel. a first surface; a membrane coupled to at least a portion of the first surface; a second surface; and ribs extending between the membrane and the second surface, a height of each rib defined between the membrane and the second surface, a first end of each rib coupled to the membrane and a second end of each rib extending uninterrupted along a respective length of each rib between a first portion of the second surface and a second portion of the second surface, wherein the ribs are in parallel.
Fluid channel system (100, 200) for examining cells, comprising a chamber (106, 206) which is filled with at least one photopolymerized hydrogel (109, 209) and/or one polymerized photodepolymerizable hydrogel to at least 90 % of capacity, in particular completely, wherein the chamber (106; 206) is open via at least two openings (107, 108; 207, 208) exclusively towards at least one fluid channel (104, 105; 204), wherein the at least one fluid channel (104, 105; 204) and the chamber (106; 206) are each embodied in the form of a hollow space in a substrate (101; 201), and wherein each fluid channel (104, 105; 204) has two openings (116, 216) to the outside, wherein "outside" refers to a region outside the substrate, and wherein the chamber (106; 206) does not have a direct connection to the outside.
A pull rope head fixing apparatus for an elevator system, configured to simultaneously fix rope heads of N pull ropes (19-N) that are arranged in parallel, N being an integer greater than or equal to 2, the pull rope head fixing apparatus comprising: a hydraulic cylinder body configured to form a hydraulic cylinder; N first hydraulic sub-cylinders (220-N) arranged in parallel on the hydraulic cylinder body and communicated with the hydraulic cylinder; first pistons (221-N) each disposed corresponding to each of the first hydraulic sub-cylinders (220-N), wherein each of the first pistons (221-N) is configured to fix a rope head (191-N) of a corresponding pull rope (19-N) and is movable in a corresponding first hydraulic sub-cylinder (220-N) when the tension of the pull rope (19-N) changes; a second hydraulic sub-cylinder arranged on the hydraulic cylinder body and communicated with the hydraulic cylinder; a second piston disposed corresponding to the second hydraulic sub-cylinder; and an elastic component, at least one end of the elastic component receiving a hydraulic force (Fs) of the hydraulic cylinder transmitted from the second piston while applying a bounce to the second piston; characterized by a sleeve disposed fixedly corresponding to the second hydraulic sub-cylinder, wherein the elastic component is disposed in the sleeve and located between a closed end of the sleeve and the second piston. a hydraulic cylinder body configured to form a hydraulic cylinder; N first hydraulic sub-cylinders (220-N) arranged in parallel on the hydraulic cylinder body and communicated with the hydraulic cylinder; first pistons (221-N) each disposed corresponding to each of the first hydraulic sub-cylinders (220-N), wherein each of the first pistons (221-N) is configured to fix a rope head (191-N) of a corresponding pull rope (19-N) and is movable in a corresponding first hydraulic sub-cylinder (220-N) when the tension of the pull rope (19-N) changes; a second hydraulic sub-cylinder arranged on the hydraulic cylinder body and communicated with the hydraulic cylinder; a second piston disposed corresponding to the second hydraulic sub-cylinder; and an elastic component, at least one end of the elastic component receiving a hydraulic force (Fs) of the hydraulic cylinder transmitted from the second piston while applying a bounce to the second piston; characterized by a sleeve disposed fixedly corresponding to the second hydraulic sub-cylinder, wherein the elastic component is disposed in the sleeve and located between a closed end of the sleeve and the second piston.