mhurhangee/patent-ind-claim-en huggingface dataset:
A lighting apparatus, comprising: a printed circuit board ; a light emitting element on the printed circuit board ; a light guide member adopted to receive the light emitting element ; a reflection member provided on the printed circuit board ; and a light guide layer (G) provided between the light guide member and the reflection member , characterized in that the light guide layer (G) has a first surface that contacts the light guide member and a second surface that faces the reflection member , wherein the light guide layer (G) includes a plurality of optical patterns on the second surface which face the reflection member , and wherein the light emitting element is extended from the printed circuit board and penetrates the reflection member and the light guide layer (G); wherein a top surface of the light emitting element is higher than the first surface of the light guide layer (G), and wherein a gap (P2) is formed between the plurality of optical patterns and the reflection member , and wherein an adhesive pattern (P1) is disposed into the gap (P2). a printed circuit board ; a light emitting element on the printed circuit board ; a light guide member adopted to receive the light emitting element ; a reflection member provided on the printed circuit board ; and a light guide layer (G) provided between the light guide member and the reflection member , characterized in that the light guide layer (G) has a first surface that contacts the light guide member and a second surface that faces the reflection member , wherein the light guide layer (G) includes a plurality of optical patterns on the second surface which face the reflection member , and wherein the light emitting element is extended from the printed circuit board and penetrates the reflection member and the light guide layer (G); wherein a top surface of the light emitting element is higher than the first surface of the light guide layer (G), and wherein a gap (P2) is formed between the plurality of optical patterns and the reflection member , and wherein an adhesive pattern (P1) is disposed into the gap (P2).
A method for estimating vapor phase corrosion load in a paper or board manufacturing system, comprising: i. determining in a defined location of an aqueous process flow a threshold rH value; and ii. determining rH values of said aqueous flow in said defined location over a defined time period in defined time points; and iii. calculating Δ rH in each time point as a difference between a determined rH value and the predetermined rH threshold value obtained in step i, wherein the calculated value Δ rH is at least zero; and iv. calculating Σ Δ rH as a cumulative sum of Δ rH values obtained in step iii or alternatively, steps (iii) and (iv) above are replaced by v. calculating cumulative sum of each determined rH value obtained in step ii wherein the determined rH value is at least the predetermined rH threshold value; and vi. calculating Σ Δ rH as a difference between the cumulative sum obtained in step v and the threshold value obtained in step i multiplied with the defined number of time points; and using the Σ Δ rH obtained in step iv or vi to estimate the corrosion load wherein increase in Σ Δ rH indicates an increase in corrosion load and decrease in Σ Δ rH indicates a decrease in corrosion load, wherein rH = 2 * pH + 2 * Eh * F / c * R * T wherein F = Faraday constant (9.64853399 x 10 4 C mol -1 , c = In10, T = temperature (K), Eh = redox potential measured with standard hydrogen electrode, and R = universal gas constant (8.314472 J K -1 mol -1 ), and wherein determination of rH value involves measurement of temperature, pH and redox potential. i. determining in a defined location of an aqueous process flow a threshold rH value; and ii. determining rH values of said aqueous flow in said defined location over a defined time period in defined time points; and iii. calculating Δ rH in each time point as a difference between a determined rH value and the predetermined rH threshold value obtained in step i, wherein the calculated value Δ rH is at least zero; and iv. calculating Σ Δ rH as a cumulative sum of Δ rH values obtained in step iii or alternatively, steps (iii) and (iv) above are replaced by v. calculating cumulative sum of each determined rH value obtained in step ii wherein the determined rH value is at least the predetermined rH threshold value; and vi. calculating Σ Δ rH as a difference between the cumulative sum obtained in step v and the threshold value obtained in step i multiplied with the defined number of time points; and using the Σ Δ rH obtained in step iv or vi to estimate the corrosion load wherein increase in Σ Δ rH indicates an increase in corrosion load and decrease in Σ Δ rH indicates a decrease in corrosion load, wherein rH = 2 * pH + 2 * Eh * F / c * R * T wherein F = Faraday constant (9.64853399 x 10 4 C mol -1 , c = In10, T = temperature (K), Eh = redox potential measured with standard hydrogen electrode, and R = universal gas constant (8.314472 J K -1 mol -1 ), and wherein determination of rH value involves measurement of temperature, pH and redox potential.
A rotary injector comprising an elongated shaft having a proximal end and a distal end, and an impeller at the distal end of the elongated shaft , the elongated shaft and the impeller being collectively rotatable during operation around an axis of the shaft , the rotary injector being hollow and having an internal supply conduit extending along the shaft and across the impeller , the impeller having blades external to and surrounding the discharge portion, the supply conduit having an inlet at the proximal end of the shaft , a main portion extending from the inlet to a discharge portion, the discharge portion extending to an axial outlet, the discharge portion having a narrow end connecting the main portion of the supply conduit and a broader end at the axial outlet, characterized in that the surface ratio of an upstream end of the discharge portion and the axial outlet is between 1.25 and 7.25.
A device-to-device, D2D, data transmission method, wherein the method comprises: sending (S401), by source user equipment, UE, a first message to n UEs that are candidate UEs for transmitting data from the source UE to a base station, wherein the first message is used to indicate that the source UE needs to transmit data to a base station, the source UE is UE out of a network coverage area of the base station, the n candidate UEs are UEs in the network coverage area of the base station, and n is an integer not less than 2, and wherein the first message includes an indication that the n candidate UEs need to feed back information; receiving (S402), by the source UE, n second messages from the n candidate UEs, wherein each of the n candidate UEs sends one second message to the source UE, and each second message comprises status information of each candidate UE; determining (S403), by the source UE, relay UE from the n candidate UEs according to the status information of each candidate UE, wherein the relay UE is UE that transmits the data to the base station and wherein the status information comprises at least one or any combination of the following information: current memory usage, current power supply usage or remaining power, or a processing capability of a central processing unit, CPU; and transmitting (S404), by the source UE, the data to the base station by using the relay UE. sending (S401), by source user equipment, UE, a first message to n UEs that are candidate UEs for transmitting data from the source UE to a base station, wherein the first message is used to indicate that the source UE needs to transmit data to a base station, the source UE is UE out of a network coverage area of the base station, the n candidate UEs are UEs in the network coverage area of the base station, and n is an integer not less than 2, and wherein the first message includes an indication that the n candidate UEs need to feed back information; receiving (S402), by the source UE, n second messages from the n candidate UEs, wherein each of the n candidate UEs sends one second message to the source UE, and each second message comprises status information of each candidate UE; determining (S403), by the source UE, relay UE from the n candidate UEs according to the status information of each candidate UE, wherein the relay UE is UE that transmits the data to the base station and wherein the status information comprises at least one or any combination of the following information: current memory usage, current power supply usage or remaining power, or a processing capability of a central processing unit, CPU; and transmitting (S404), by the source UE, the data to the base station by using the relay UE.
Method for manufacturing plant-based meat analogue products, said method comprising: a) preparing a batch (P) of plant textured proteins by hydrating said plant textured proteins with an aqueous solution, optionally comprising at least one coloring and/or flavoring agent, under a low agitation inferior to 50 rpm, b) preparing a batch (E) of texturing emulsion by b1) dispersing in oil a mixture comprising a texturing agent and at least one other binding agent, b2) mixing said dispersion with an aqueous solution under a low agitation inferior to 90 rpm, and b3) mixing the mixture obtained at step b2) under high shear conditions, thereby obtaining an emulsion, c) mixing said batches (P) and (E) under a low agitation inferior to 70 rpm, d) forming plant-based meat analogue products from the mixture obtained at step c). a) preparing a batch (P) of plant textured proteins by hydrating said plant textured proteins with an aqueous solution, optionally comprising at least one coloring and/or flavoring agent, under a low agitation inferior to 50 rpm, b) preparing a batch (E) of texturing emulsion by b1) dispersing in oil a mixture comprising a texturing agent and at least one other binding agent, b2) mixing said dispersion with an aqueous solution under a low agitation inferior to 90 rpm, and b3) mixing the mixture obtained at step b2) under high shear conditions, thereby obtaining an emulsion, b1) dispersing in oil a mixture comprising a texturing agent and at least one other binding agent, b2) mixing said dispersion with an aqueous solution under a low agitation inferior to 90 rpm, and b3) mixing the mixture obtained at step b2) under high shear conditions, thereby obtaining an emulsion, c) mixing said batches (P) and (E) under a low agitation inferior to 70 rpm, d) forming plant-based meat analogue products from the mixture obtained at step c).
A method of transmitting a Sounding Reference Signal, SRS, by a user equipment , UE, in a wireless communication system, the method comprising: receiving configuration information for one or more SRS resource sets, via radio resource control, RRC, signaling, wherein the configuration information includes first spatial relation information, and wherein a type of the SRS is configured as an aperiodic SRS; receiving downlink control information, DCI, for triggering a transmission of the aperiodic SRS; and transmitting the aperiodic SRS by applying a spatial relation assumption based on the first spatial relation information; wherein the method further comprising: receiving second spatial relation information for the aperiodic SRS via medium access control-control element, MAC-CE, signaling, wherein the spatial relation assumption is updated based on the second spatial relation information, and wherein each of the first spatial relation information and the second spatial relation information comprises information for downlink reference signals related with the spatial relation assumption for the aperiodic SRS. receiving configuration information for one or more SRS resource sets, via radio resource control, RRC, signaling, wherein the configuration information includes first spatial relation information, and wherein a type of the SRS is configured as an aperiodic SRS; receiving downlink control information, DCI, for triggering a transmission of the aperiodic SRS; and transmitting the aperiodic SRS by applying a spatial relation assumption based on the first spatial relation information; wherein the method further comprising: receiving second spatial relation information for the aperiodic SRS via medium access control-control element, MAC-CE, signaling, wherein the spatial relation assumption is updated based on the second spatial relation information, and wherein each of the first spatial relation information and the second spatial relation information comprises information for downlink reference signals related with the spatial relation assumption for the aperiodic SRS. receiving second spatial relation information for the aperiodic SRS via medium access control-control element, MAC-CE, signaling, wherein the spatial relation assumption is updated based on the second spatial relation information, and wherein each of the first spatial relation information and the second spatial relation information comprises information for downlink reference signals related with the spatial relation assumption for the aperiodic SRS.
A compound of the general formula 1 wherein X - means halogenide, pseudohalogenide, sulfate, benzoate, acetate, trifluoroacetate, hydroxide, saccharinate, or capsaicinate, R1-R10 independently of each other mean hydrogen, halogen, C1-C5-alkyl-, C1-C4-alkoxy-, C1-C20-alkoxycarbonyl-, -NH-P, -O-P, wherein P is a hydrogen, a peptide residue consisting of 1-30 amino acids, wherein these may be modified and unmodified D-amino acids, L-amino acids as well as unnatural amino acids, -(Y) n -COOR13, -(Y) n -COOM with M = Na, K, [N(R12) 4 ] + , or -(Y) n -C(O)NR14R15, wherein R14 and R15 mean hydrogen, a C1-C12-alkyl-, or a peptide residue consisting of 1-30 amino acids, wherein these may be modified and unmodified D-amino acids, L-amino acids as well as unnatural amino acids, wherein at least one of the residues R1-R10 is a group -(Y) n -COOM, -(Y) n -COOR13, or -(Y) n -C(O)NR14R15, wherein Y represents -CH 2 -, -CH(CH 3 )-, -CH 2 -CH 2 -, -(CH 2 ) 3 -, -CH=CH-, -C≡C-, -O-CH 2 -CH 2 -, -O-CH 2 -CH 2 -O-CH 2 -CH 2 -, or -NH-CH 2 -CH 2 -, and n = 0 or 1, R11 means a C1-C10-alkyl residue, and R12, R13 independently of each other mean hydrogen or a C1-C10-alkyl residue. X - means halogenide, pseudohalogenide, sulfate, benzoate, acetate, trifluoroacetate, hydroxide, saccharinate, or capsaicinate, R1-R10 independently of each other mean hydrogen, halogen, C1-C5-alkyl-, C1-C4-alkoxy-, C1-C20-alkoxycarbonyl-, -NH-P, -O-P, wherein P is a hydrogen, a peptide residue consisting of 1-30 amino acids, wherein these may be modified and unmodified D-amino acids, L-amino acids as well as unnatural amino acids, -(Y) n -COOR13, -(Y) n -COOM with M = Na, K, [N(R12) 4 ] + , or -(Y) n -C(O)NR14R15, wherein R14 and R15 mean hydrogen, a C1-C12-alkyl-, or a peptide residue consisting of 1-30 amino acids, wherein these may be modified and unmodified D-amino acids, L-amino acids as well as unnatural amino acids, wherein at least one of the residues R1-R10 is a group -(Y) n -COOM, -(Y) n -COOR13, or -(Y) n -C(O)NR14R15, wherein Y represents -CH 2 -, -CH(CH 3 )-, -CH 2 -CH 2 -, -(CH 2 ) 3 -, -CH=CH-, -C≡C-, -O-CH 2 -CH 2 -, -O-CH 2 -CH 2 -O-CH 2 -CH 2 -, or -NH-CH 2 -CH 2 -, and n = 0 or 1, R11 means a C1-C10-alkyl residue, and R12, R13 independently of each other mean hydrogen or a C1-C10-alkyl residue.
Device for the production of preforms for aircraft structural components , having a supply unit for the continuous supply of a layer structure with at least one fibre layer , having a heating unit with at least one infrared heater which has an infrared radiation source , wherein the supplied layer structure is passed through the heating unit in a conveying direction (F) and can be heated there over at least part of its width (B) in cross section by the at least one infrared heater , wherein a plate which is permeable to infrared radiation is arranged between the layer structure and the infrared heater .
A method of operating a mobile terminal for supporting positioning of the mobile terminal : receiving a defined filter pattern from a network node in a communications network or another node of the communications network; discovering identities of a plurality of reference devices based on signals received from the plurality of reference devices; filtering the discovered identities of the plurality of reference devices to obtain a subset of identities of the plurality of reference devices that each satisfy the defined filter pattern; and reporting information on the subset of the identities of the plurality of reference devices to the network node. receiving a defined filter pattern from a network node in a communications network or another node of the communications network; discovering identities of a plurality of reference devices based on signals received from the plurality of reference devices; filtering the discovered identities of the plurality of reference devices to obtain a subset of identities of the plurality of reference devices that each satisfy the defined filter pattern; and reporting information on the subset of the identities of the plurality of reference devices to the network node.
A suspended storage for a conveyor system, the suspended storage being capable of storing an article , the suspended storage being adapted to be conveyed while being suspended from a rail , the suspended storage comprising: a suspending member suspending a storage body from the rail ; the storage body , suspended from the suspending member , including a bag having an internal storage space for the article and adapted to store the article ; and a reorienting member supported by the suspending member and has a free end in the storage body adapted to reorient the storage body with respect to the suspending member , characterized in that the reorienting member which is provided independently of the storage body is provided in the internal storage space of the storage body and presents a lower side and an upper side , capable of lifting the storage body , and is supported pivotally with respect to the suspending member such that the lower side is adapted to vertically pivot about the upper side supported by a block of the suspending member so as to pivot with respect to the suspending member so as to reorient the storage body . a suspending member suspending a storage body from the rail ; the storage body , suspended from the suspending member , including a bag having an internal storage space for the article and adapted to store the article ; and a reorienting member supported by the suspending member and has a free end in the storage body adapted to reorient the storage body with respect to the suspending member , characterized in that the reorienting member which is provided independently of the storage body is provided in the internal storage space of the storage body and presents a lower side and an upper side , capable of lifting the storage body , and is supported pivotally with respect to the suspending member such that the lower side is adapted to vertically pivot about the upper side supported by a block of the suspending member so as to pivot with respect to the suspending member so as to reorient the storage body .
A deboner for a poultry part , wherein the poultry part to be processed is suspended in a conveyor for moving the poultry part along the deboner to enable processing the poultry part by the deboner , said deboner being equipped with a first jaw and a second jaw that are arranged to engage the poultry part and are mounted on an up-and-down movable slide block supporting a first frame portion , a second frame portion , and a third frame portion , wherein the first frame portion is rotatably mounted on the third frame portion , and the second frame portion is rotatably mounted on the third frame portion , and wherein the first jaw and the second jaw are movable towards and away from each other, wherein the first jaw is through a first hinge connected with the first frame portion so as to enable a rotational movement of the first jaw with respect to the first frame portion , wherein a second hinge that pivotably connects the first frame portion to the third frame portion and a third hinge that pivotably connects the second frame portion with the third frame portion share a common axis of rotation, and wherein at least one of the first jaw and the second jaw is spring-loaded so as to urge the concerning jaw in use towards the poultry part and enable that said jaw passes any knuckle present in the suspended poultry part, wherein the first jaw is spring-loaded with a spring that engages a lever arm of the first jaw so as to urge the first jaw in use towards the poultry part and wherein the second jaw is connected through a fourth hinge with the second frame portion so as to enable a rotational movement of the second jaw with respect to the second portion , so that both the first jaw and the second jaw can adjust to the dimension of the poultry part.
Method for, using a substrate , within a first processing step ("S1"), collecting loose and/or loosened particles ("P2", "p2") from a surface part supporting the particles, in an ionizing state and under an activated electrostatic field strength , and in a second processing step ("S2") cleansing the substrate from collected particles, in a deionized state or under a neutral electrostatic field strength, characterized in that the method uses a piece of flexible sheet material comprising the substrate and being impermeable to micro fibers and/or nano fibers, and wherein the piece of flexible sheet material as well as its support layer display electrically isolating and gas- and air permeable properties, and wherein an electrically isolating, gas- and air permeable support layer is applied to the surface part of the said substrate and its associated piece of flexible sheet material facing away from loose and loosened particles.
Support for in-situ mechanical laminography tests, comprising: - a cavity comprising: • a first zone , arranged to accommodate a first portion of a specimen complementary with the first zone of the cavity, said first zone comprising means for holding the specimen, said means for holding the specimen being arranged to immobilise the first portion of the specimen in the support, • a second zone arranged to accommodate a second portion of the specimen, said first and second zones of the cavity being adjacent and arranged to accommodate the first and second portions of a whole specimen , - a means , referred to as mechanical loading means, comprising a transfer element arranged to be set in motion in the second zone of the cavity so as to, when a specimen is placed in the cavity , exert a mechanical force on the second portion of the specimen producing stresses and deformations in a given region of the specimen. - a cavity comprising: • a first zone , arranged to accommodate a first portion of a specimen complementary with the first zone of the cavity, said first zone comprising means for holding the specimen, said means for holding the specimen being arranged to immobilise the first portion of the specimen in the support, • a second zone arranged to accommodate a second portion of the specimen, • a first zone , arranged to accommodate a first portion of a specimen complementary with the first zone of the cavity, said first zone comprising means for holding the specimen, said means for holding the specimen being arranged to immobilise the first portion of the specimen in the support, • a second zone arranged to accommodate a second portion of the specimen, - a means , referred to as mechanical loading means, comprising a transfer element arranged to be set in motion in the second zone of the cavity so as to, when a specimen is placed in the cavity , exert a mechanical force on the second portion of the specimen producing stresses and deformations in a given region of the specimen.