mhurhangee/patent-ind-claim-en huggingface dataset:
Storage device for storing sheet-type elements (P) in piles in a shaping machine , the storage device comprising: - a movable storage surface and - an actuating device for moving the storage surface : - between a retracted position and a vertical front position in an alternating back-and-forth movement for storing the sheets in a pile, and - between the retracted position and a stowed position for freeing the access to the pile of sheet-type elements (P), the actuating device comprising cam means for moving the storage surface upwards into the stowed position, in an upper position intended to be located above the top of the pile of sheets, the cam means comprising at least one first cam follower fixed to the storage surface and at least one first control profile cooperating with the at least one first cam follower to guide said movement of the storage surface , characterised in that the cam means comprise at least one second cam follower fixed to the storage surface below the at least one first cam follower and at least one second control profile cooperating with the at least one second cam follower , a first portion of the at least one second control profile being curved to guide the movement of the storage surface between the retracted position and the vertical front position and a second portion of the second control profile being straight to guide the movement of the storage surface between the retracted position and the stowed position. - a movable storage surface and - an actuating device for moving the storage surface : - between a retracted position and a vertical front position in an alternating back-and-forth movement for storing the sheets in a pile, and - between the retracted position and a stowed position for freeing the access to the pile of sheet-type elements (P), - between a retracted position and a vertical front position in an alternating back-and-forth movement for storing the sheets in a pile, and - between the retracted position and a stowed position for freeing the access to the pile of sheet-type elements (P),
A capacitor structure , comprising: a substrate ; a conductive layer above the substrate ; and a porous layer, above the conductive layer , having pores that extend perpendicularly from a top surface of the porous layer toward the conductive layer , characterized in that the porous layer comprises a first region in which pores conductive wires are disposed, and a second region in which pores a metal-insulator-metal (MIM) structure is disposed. a substrate ; a conductive layer above the substrate ; and a porous layer, above the conductive layer , having pores that extend perpendicularly from a top surface of the porous layer toward the conductive layer , characterized in that the porous layer comprises a first region in which pores conductive wires are disposed, and a second region in which pores a metal-insulator-metal (MIM) structure is disposed.
A line connector for electrical lines having - holding elements arranged in connection regions of the line connector , by means of which the electrical lines can be introduced into the line connector , wherein each holding element has one or more receptacles shaped as recesses for lines on a circumferential edge , wherein the conductors of the lines introduced into the line connector can be electrically connected in a connection region located between the connection regions , - a first electrically conductive enclosure , which encloses the holding elements and the connection region located therebetween, and which is in electrically conductive contact at least in the region of the holding elements with an electrically conductive element of the electrical lines , and - one or more clamping elements , which exert a force on the first electrically conductive enclosure at least in the region of the holding element , which force presses the first electrically conductive enclosure against the electrically conductive elements of the electrical lines received in the receptacles of the holding elements . - holding elements arranged in connection regions of the line connector , by means of which the electrical lines can be introduced into the line connector , wherein each holding element has one or more receptacles shaped as recesses for lines on a circumferential edge , wherein the conductors of the lines introduced into the line connector can be electrically connected in a connection region located between the connection regions , - a first electrically conductive enclosure , which encloses the holding elements and the connection region located therebetween, and which is in electrically conductive contact at least in the region of the holding elements with an electrically conductive element of the electrical lines , and - one or more clamping elements , which exert a force on the first electrically conductive enclosure at least in the region of the holding element , which force presses the first electrically conductive enclosure against the electrically conductive elements of the electrical lines received in the receptacles of the holding elements .
A method for producing hydrolyzed collagen, the method comprising (a) heating a chicken sternum in the presence of an aqueous acid at a temperature of from 55 °C to 65 °C for 8 to 20 hours, wherein the ratio of chicken sternum per mole of acid is from 250 g chicken sternum/mole of acid to 2,000 g chicken sternum/mole of acid to produce a first composition, and wherein the acid is hydrochloric acid, hydroiodic acid, hydrobromic acid, perchloric acid, nitric acid, sulfuric acid, or a combination thereof; (b) optionally filtering the first composition to remove the supernatant; (c) neutralizing the acid present in the supernatant to produce a neutralized supernatant; and (d) removing the water in the neutralized supernatant to produce the hydrolyzed collagen. (a) heating a chicken sternum in the presence of an aqueous acid at a temperature of from 55 °C to 65 °C for 8 to 20 hours, wherein the ratio of chicken sternum per mole of acid is from 250 g chicken sternum/mole of acid to 2,000 g chicken sternum/mole of acid to produce a first composition, and wherein the acid is hydrochloric acid, hydroiodic acid, hydrobromic acid, perchloric acid, nitric acid, sulfuric acid, or a combination thereof; (b) optionally filtering the first composition to remove the supernatant; (c) neutralizing the acid present in the supernatant to produce a neutralized supernatant; and (d) removing the water in the neutralized supernatant to produce the hydrolyzed collagen.
A reagent system for fixing cells, the reagent system comprising: a first fixing buffer comprising: 3% to 20% w/v polyvinylpyrrolidone diluted in an methanol; and a second fixing buffer comprising: 5% to 30% v/v of a glycerol, 0.01% to 1% v/v of a detergent, wherein the detergent comprises a polysorbate surfactant, polysorbate 20, saponin, Triton X-100, Triton X-114, Tween-40, Tween-80, digitonin, CHAPS, CHAPSO, n-dodecyl-β-D-maltoside, sodium dodecyl sulfate, or a combination thereof, and 0.005% to 1% w/v of a chromium potassium sulfate, wherein the glycerol, detergent, and chromium potassium sulfate are diluted in saline. a first fixing buffer comprising: 3% to 20% w/v polyvinylpyrrolidone diluted in an methanol; and a second fixing buffer comprising: 5% to 30% v/v of a glycerol, 0.01% to 1% v/v of a detergent, wherein the detergent comprises a polysorbate surfactant, polysorbate 20, saponin, Triton X-100, Triton X-114, Tween-40, Tween-80, digitonin, CHAPS, CHAPSO, n-dodecyl-β-D-maltoside, sodium dodecyl sulfate, or a combination thereof, and 0.005% to 1% w/v of a chromium potassium sulfate, wherein the glycerol, detergent, and chromium potassium sulfate are diluted in saline. 5% to 30% v/v of a glycerol, 0.01% to 1% v/v of a detergent, wherein the detergent comprises a polysorbate surfactant, polysorbate 20, saponin, Triton X-100, Triton X-114, Tween-40, Tween-80, digitonin, CHAPS, CHAPSO, n-dodecyl-β-D-maltoside, sodium dodecyl sulfate, or a combination thereof, and 0.005% to 1% w/v of a chromium potassium sulfate,
A light emitting device cap configured for location on a light emitting device comprising a primary light source, the cap comprising a bulk material defining a well region for receipt of a population of semiconductor nanoparticles such that the semiconductor nanoparticles are in optical communication with the primary light source of the light emitting device when the cap is located on the light emitting device, wherein the cap acts as an oxygen barrier and wherein an internal surface of a side of the cap is configured to engage an external surface of the light emitting device and provide structural support.
A method, in a user equipment, for receiving control information in a radio communications network, the method comprising receiving a downlink signal comprising an enhanced control region consisting of at least two sets of physical resource block, PRB, pairs, each PRB pair consisting of a group of non-overlapping physical layer building blocks; wherein the method further comprises: forming one or more distributed enhanced control-channel elements, eCCEs, from a first set of PRB pairs by aggregating physical layer building blocks from multiple PRB pairs to form each distributed eCCE; forming one or more localized eCCEs from a second set of PRB pairs by aggregating physical layer building blocks such that each of the localized eCCEs is formed from physical layer building blocks from within a single PRB pair of the second set; and the method being characterised in that : forming first control channel message candidates from the distributed eCCEs and second control channel message candidates from the localized eCCEs; and wherein the forming comprises determining a starting eCCE position within the enhanced control region, and wherein said determining a starting eCCE position and said forming a number of control channel message candidates are performed independently for each of the localized eCCEs and the distributed eCCEs; and decoding each of the first and second control channel message candidates to search for a valid control channel message. forming one or more distributed enhanced control-channel elements, eCCEs, from a first set of PRB pairs by aggregating physical layer building blocks from multiple PRB pairs to form each distributed eCCE; forming one or more localized eCCEs from a second set of PRB pairs by aggregating physical layer building blocks such that each of the localized eCCEs is formed from physical layer building blocks from within a single PRB pair of the second set; and the method being characterised in that : forming first control channel message candidates from the distributed eCCEs and second control channel message candidates from the localized eCCEs; and wherein the forming comprises determining a starting eCCE position within the enhanced control region, and wherein said determining a starting eCCE position and said forming a number of control channel message candidates are performed independently for each of the localized eCCEs and the distributed eCCEs; and decoding each of the first and second control channel message candidates to search for a valid control channel message.
An optical measurement module comprising: a light source configured to emit an original light beam ; a collimator configured to collimate the original light beam into a collimated light beam ; a first beam splitter configured to direct the collimated light beam to an analyte , wherein the analyte transforms the collimated light beam into a measurement light beam ; a second beam splitter configured to receive a first part of the measurement light beam via the first beam splitter and divides the first part of the measurement light beam into a first detection light beam and a second detection light beam ; a third beam splitter (33; 34; 35) and a third light receiving module (53;54;55), the third beam splitter being configured to direct a second part of the measurement light beam to the third light receiving module (53;54;55); a first light receiving module configured to detect the first detection light beam ; a second light receiving module configured to detect the second detection light beam , and each of the first light receiving module and the second light receiving module is configured to determine one of the optical properties of the analyte, the optical property being selected from the group consisting of absorbance, refractive index, polarization, fluorescence, and inelastic scattering; wherein the third light receiving module is a thermometer, a telemeter or an image sensor. a light source configured to emit an original light beam ; a collimator configured to collimate the original light beam into a collimated light beam ; a first beam splitter configured to direct the collimated light beam to an analyte , wherein the analyte transforms the collimated light beam into a measurement light beam ; a second beam splitter configured to receive a first part of the measurement light beam via the first beam splitter and divides the first part of the measurement light beam into a first detection light beam and a second detection light beam ; a third beam splitter (33; 34; 35) and a third light receiving module (53;54;55), the third beam splitter being configured to direct a second part of the measurement light beam to the third light receiving module (53;54;55); a first light receiving module configured to detect the first detection light beam ; a second light receiving module configured to detect the second detection light beam , and each of the first light receiving module and the second light receiving module is configured to determine one of the optical properties of the analyte, the optical property being selected from the group consisting of absorbance, refractive index, polarization, fluorescence, and inelastic scattering; wherein the third light receiving module is a thermometer, a telemeter or an image sensor.
A gas discharge tube, comprising at least two electrodes and an insulating tube body which is connected in a sealing manner with the electrodes to form a discharge inner cavity , the discharge inner cavity being filled with gas, wherein a low-temperature sealing solder or a low-temperature sealing adhesive for sealing the discharge inner cavity is arranged in the gas discharge tube, the low-temperature sealing solder or low-temperature sealing adhesive being capable of melting at a specific low temperature to cause gas leakage in the discharge inner cavity ; wherein the low-temperature is 500 °C or below; wherein at least one electrode of the electrodes is connected in the sealing manner with the insulating tube body through the low-temperature sealing solder or the low-temperature sealing adhesive ; characterized in that , protective layers having a heat conductivity coefficient less than that of the electrodes are arranged on outer surfaces of the electrodes and the low-temperature sealing solder or the low-temperature sealing adhesive ; wherein the protective layers are arranged to reduce heat transferred from an inside of the gas discharge tube to an outside of the the gas discharge tube.
A pneumatic tire having a plurality of land parts partitioned by four main grooves extending in a tire circumferential direction, in a tread part , wherein the plurality of land parts include: a center land part ; intermediate land parts respectively adjoining both sides of the center land part ; and shoulder land parts respectively adjoining tire transversal outer sides of the intermediate land parts , the center land part and the intermediate land parts has a plurality of block parts (B) having outer sides in a tire radial direction sectioned in a tire circumferential direction only by sipes (S), each of the plurality of block parts (B) is chamfered from an outer side in the tire radial direction at least at an acute angle part (AE) viewed from a tread surface, each of the plurality of block parts (B) has a larger chamfering width (La) at least at one tire transversal end part than at a middle part, and "chamfering width" means a tire circumferential distance between a sipe (S) and a chamfering starting point, and "block part" is a concept including not only a block having whole circumference defined by grooves and sipes (S) with both ends of sipes (S) opening to main grooves, but also a block projected from a rib characterized in that a sipe (S) formed in the center land part communicates with a main groove only on a vehicle installation inner side, transversal grooves are formed on the shoulder land parts and an edge part of each transversal groove on the shoulder land parts is chamfered, a chamfering width of each of the plurality of block parts (B) in the center land part is larger than a chamfering width of the intermediate land parts and the shoulder land parts , and an area between a sipe (S) and a main groove is chamfered so that an edge (EG) which is line of intersection between a chamfered surface (F) formed by chamfering and the outer side in the tire radial direction has an inverted U shape with respect to the outer side in the tire radial direction, when the tire is viewed from the tread surface and the vehicle installation inner side of the tire is located at the left side of the tire. a center land part ; intermediate land parts respectively adjoining both sides of the center land part ; and shoulder land parts respectively adjoining tire transversal outer sides of the intermediate land parts ,
A smart card comprising: a peripheral circuit configured to control a fingerprint sensing array and generate a raw image; an authentication information processing module configured to process the raw image into fingerprint information for verification; a security module configured to determine whether the fingerprint information for verification matches registered fingerprint information to determine usage approval or disapproval for a payment request; and an active shield overlapping the security module and configured to prevent detection from the outside, wherein the peripheral circuit , the authentication information processing module , and the security module are integrated into one chip, wherein the security module further comprises a mailbox that is below the active shield and configured to communicate with the authentication information processing module , wherein the mailbox stores usage status information and data size information, which indicate a communication state between the security module and the authentication information processing module . a peripheral circuit configured to control a fingerprint sensing array and generate a raw image; an authentication information processing module configured to process the raw image into fingerprint information for verification; a security module configured to determine whether the fingerprint information for verification matches registered fingerprint information to determine usage approval or disapproval for a payment request; and an active shield overlapping the security module and configured to prevent detection from the outside, wherein the peripheral circuit , the authentication information processing module , and the security module are integrated into one chip, wherein the security module further comprises a mailbox that is below the active shield and configured to communicate with the authentication information processing module , wherein the mailbox stores usage status information and data size information, which indicate a communication state between the security module and the authentication information processing module .
A rotary compressor, comprising: a rotary shaft ; a plurality of plates supporting the rotary shaft ; a cylinder provided between the plurality of plates to define a compression space (V), and provided with a vane slot ; a roller slidably coupled to the rotary shaft to be provided inside the cylinder , and disposed with a hinge groove on an outer circumferential surface thereof; and a vane , one end of which is slidably coupled to the vane slot of the cylinder , and the other end of which is rotatably coupled to the hinge groove of the roller , wherein at least one of both axial end surfaces of the roller facing the plurality of plates is provided with a dimple portion having a preset depth, wherein the dimple portion has a circumferential length greater than a radial length thereof, characterized in that the dimple portion is disposed on at least one of both sealing surfaces of the roller , and wherein the dimple portion is disposed in the shape of an elongated groove in a circumferential direction toward the hinge groove. a rotary shaft ; a plurality of plates supporting the rotary shaft ; a cylinder provided between the plurality of plates to define a compression space (V), and provided with a vane slot ; a roller slidably coupled to the rotary shaft to be provided inside the cylinder , and disposed with a hinge groove on an outer circumferential surface thereof; and a vane , one end of which is slidably coupled to the vane slot of the cylinder , and the other end of which is rotatably coupled to the hinge groove of the roller , wherein at least one of both axial end surfaces of the roller facing the plurality of plates is provided with a dimple portion having a preset depth, wherein the dimple portion has a circumferential length greater than a radial length thereof, characterized in that the dimple portion is disposed on at least one of both sealing surfaces of the roller , and wherein the dimple portion is disposed in the shape of an elongated groove in a circumferential direction toward the hinge groove.
A method for characterizing an optical fiber link under test, the method comprising: performing a plurality of OTDR acquisitions toward the optical fiber link under test, wherein each OTDR acquisition is performed by propagating a pulsed test signal in the optical fiber link under test and detecting corresponding return light from the optical fiber link so as to obtain an OTDR trace representative of backscattered and reflected light as a function of distance in the optical fiber link under test, and wherein said plurality of OTDR acquisitions are performed with mutually-different center wavelengths of said pulsed test signal; the method characterized by : applying a chromatic dispersion correction on each said plurality of OTDR traces to produce modified OTDR traces; and averaging said modified OTDR traces to obtain a spectrally averaged OTDR trace. wherein each OTDR acquisition is performed by propagating a pulsed test signal in the optical fiber link under test and detecting corresponding return light from the optical fiber link so as to obtain an OTDR trace representative of backscattered and reflected light as a function of distance in the optical fiber link under test, and wherein said plurality of OTDR acquisitions are performed with mutually-different center wavelengths of said pulsed test signal; the method characterized by : applying a chromatic dispersion correction on each said plurality of OTDR traces to produce modified OTDR traces; and averaging said modified OTDR traces to obtain a spectrally averaged OTDR trace. applying a chromatic dispersion correction on each said plurality of OTDR traces to produce modified OTDR traces; and averaging said modified OTDR traces to obtain a spectrally averaged OTDR trace.
A method for producing a part (1; 11) having improved resistance to oxidation and high temperature-corrosion, comprising at least the formation of an environmental barrier coating (7; 17) on an at least partially ceramic matrix composite material (3; 13), said environmental barrier coating being formed by direct liquid injection-metal organic chemical vapor deposition.