mhurhangee/patent-ind-claim-en huggingface dataset:
Wound dressing for wound treatment in a damp or moist environment, comprising a) a suction/rinsing body treated by the manufacturer with a saline aqueous solution, in particular Ringer's solution, wherein the solution preferably contains a substance with antimicrobial action; b) a sheetlike backing material , which is arranged on that side of the suction/rinsing body facing away from the wound and which overhangs the suction/rinsing body in such a way as to form an edge, which surrounds the suction/rinsing body on all sides and which, on the wound-facing side, is provided with a layer of a skin-compatible silicone adhesive ; and c) a first protective layer , which covers the layer of a skin-compatible silicone adhesive on the wound-facing side, characterized in that the wound dressing has a second protective layer , which is arranged on that side of the backing material facing away from the wound, wherein both the first and the second protective layer overhang the backing material over the entire side, wherein the first protective layer forms an opening which leaves the suction/rinsing body uncovered, and wherein the first and the second protective layer consist of a material which is impermeable to liquid and water vapour and comprises polyester, polyamide or polypropylene, with the result that the first and the second protective layer protect the layer of skin-compatible silicone adhesive from contact with liquid and water vapour.
A resource determination method comprising: collecting, by a network functions virtualization orchestrator, NFVO, resource data from at least one of: a virtualized infrastructure manager, VIM, and a wide area network infrastructure manager, WIM; establishing, by the NFVO, a resource pool according to the collected resource data; receiving (S302), by the NFVO, a lifecycle operation for a network service, NS; determining (S304) unifiedly, by the NFVO, resources required by performing the lifecycle operation for the NS, wherein the resources comprise: resources of a plurality of virtualized network functions, VNFs, and a VNF virtual link, VL, resource; and determining unifiedly and directly, by the NFVO, grant information of the determined resources according to the determined resources and current resource information of the resource pool. collecting, by a network functions virtualization orchestrator, NFVO, resource data from at least one of: a virtualized infrastructure manager, VIM, and a wide area network infrastructure manager, WIM; establishing, by the NFVO, a resource pool according to the collected resource data; receiving (S302), by the NFVO, a lifecycle operation for a network service, NS; determining (S304) unifiedly, by the NFVO, resources required by performing the lifecycle operation for the NS, wherein the resources comprise: resources of a plurality of virtualized network functions, VNFs, and a VNF virtual link, VL, resource; and determining unifiedly and directly, by the NFVO, grant information of the determined resources according to the determined resources and current resource information of the resource pool.
An electronic device, comprising: a main support , wherein the main support is provided with a mounting space ; a first steel sheet , wherein the first steel sheet is mounted to a first face of the main support , and the first steel sheet is provided with a mounting portion that is located inside the mounting space , with a gap suitable for accommodating a board-to-board connector left between the mounting portion and a plane of the first face of the main support ; a camera assembly , wherein the camera assembly is disposed in the mounting portion; and a fixation assembly , wherein the fixation assembly is mounted to a second face of the main support and connected to the camera assembly to fix the camera assembly , wherein the first steel sheet comprises a first steel sheet body , a bearing piece , and a first connection piece ; and the first connection piece and the first steel sheet body are connected to the first face of the main support and located at two sides of the mounting space , two ends of the bearing piece are connected to the first connection piece and the first steel sheet body , respectively, and the bearing piece protrudes away from the plane of the first face of the main support to form the gap. a main support , wherein the main support is provided with a mounting space ; a first steel sheet , wherein the first steel sheet is mounted to a first face of the main support , and the first steel sheet is provided with a mounting portion that is located inside the mounting space , with a gap suitable for accommodating a board-to-board connector left between the mounting portion and a plane of the first face of the main support ; a camera assembly , wherein the camera assembly is disposed in the mounting portion; and a fixation assembly , wherein the fixation assembly is mounted to a second face of the main support and connected to the camera assembly to fix the camera assembly , wherein the first steel sheet comprises a first steel sheet body , a bearing piece , and a first connection piece ; and the first connection piece and the first steel sheet body are connected to the first face of the main support and located at two sides of the mounting space , two ends of the bearing piece are connected to the first connection piece and the first steel sheet body , respectively, and the bearing piece protrudes away from the plane of the first face of the main support to form the gap.
A process for preparing a compound selected from the group consisting of 3-[(S)-7-bromo-2-(2-hydroxy-propylamino)-5-pyridin-2-yl-3H-benzo[e] diazepin-3-yl]propionic acid methyl ester, 3-[(S)-7-bromo-2-((R)-2-hydroxy-propylamino)-5-pyridin-2-yl-3H-benzo[e] diazepin-3-yl]propionic acid methyl ester, and 3-[(S)-7-bromo-2-((S)-2-hydroxy-propylamino)-5-pyridin-2-yl-3H-benzo[e] diazepin-3-yl]propionic acid methyl ester, comprising conducting an addition reaction between (i) 1-aminopropan-2-ol, (R)-1-aminopropan-2-ol and (S)-1-aminopropan-2-ol, respectively, and (ii) 3-[(S)-7-bromo-2-oxo-5-pyridin-2-yl-2,3-dihydro-1H-1,4-benzodiazepin-3-yl]propionic acid methyl ester, followed by a work-up method not involving an ammonium ion-containing solution. (i) 1-aminopropan-2-ol, (R)-1-aminopropan-2-ol and (S)-1-aminopropan-2-ol, respectively, and (ii) 3-[(S)-7-bromo-2-oxo-5-pyridin-2-yl-2,3-dihydro-1H-1,4-benzodiazepin-3-yl]propionic acid methyl ester, followed by a work-up method not involving an ammonium ion-containing solution.
A measurement system for a rotary milking parlor with a movable platform , the measurement system comprising: a movement sensor arrangeable on the movable platform , the movement sensor being configured to register micro movements (μM) of the movable platform relative to a fix reference frame, wherein the movement sensor comprises: a first sensor member configured to perform measurements of at least one of: displacements in at least one dimension, and accelerations in at least one dimension; and the movement sensor further comprises a transmitter configured to emit a wireless sensor signal (S W ) reflecting the measurements made by the first sensor member; and the measurement system comprises a receiver configured to receive the wireless sensor signal (S W ), characterized in that the movement sensor is configured to: check if an amount of micro movements (μM) is below a threshold value, and if so emit the wireless sensor signal (S W ) repeatedly at a first repetition frequency (f 1 ), and if the amount of micro movements (μM) is equal to or above the threshold value emit the wireless sensor signal (S W ) repeatedly at a repetition frequency (f 2 , f 3 ) above the first repetition frequency (f 1 ). displacements in at least one dimension, and accelerations in at least one dimension; and the movement sensor further comprises a transmitter configured to emit a wireless sensor signal (S W ) reflecting the measurements made by the first sensor member; and the measurement system comprises a receiver configured to receive the wireless sensor signal (S W ), characterized in that the movement sensor is configured to: check if an amount of micro movements (μM) is below a threshold value, and if so emit the wireless sensor signal (S W ) repeatedly at a first repetition frequency (f 1 ), and if the amount of micro movements (μM) is equal to or above the threshold value emit the wireless sensor signal (S W ) repeatedly at a repetition frequency (f 2 , f 3 ) above the first repetition frequency (f 1 ). check if an amount of micro movements (μM) is below a threshold value, and if so emit the wireless sensor signal (S W ) repeatedly at a first repetition frequency (f 1 ), and if the amount of micro movements (μM) is equal to or above the threshold value emit the wireless sensor signal (S W ) repeatedly at a repetition frequency (f 2 , f 3 ) above the first repetition frequency (f 1 ).
An ultraviolet, UV, curable inkjet ink composition for delivery with a second UV curable inkjet ink, said UV curable inkjet ink composition comprising: one or more of: a dendritic or hyperbranched polyester acrylate component present in said UV curable inkjet ink composition in an amount of 10% to 45% by weight of said composition; an oligomer component present in said composition in an amount of 1% to 15% by weight of said UV curable inkjet ink composition; a monomer component present in said composition in an amount of 30% to 60% by weight of said UV curable inkjet ink composition; and a photo-initiator component present in said composition in an amount of 1% to 20% by weight of said UV curable inkjet ink composition; and a colorant component present in said UV curable inkjet ink composition in an amount of no greater than 5% by weight of said UV curable inkjet ink composition, said colorant comprising a white pigment, wherein the white pigment comprises zinc oxide; wherein said UV curable inkjet ink composition is configured for concurrent delivery and blending with said second UV curable inkjet ink before subsequent UV curing. one or more of: a dendritic or hyperbranched polyester acrylate component present in said UV curable inkjet ink composition in an amount of 10% to 45% by weight of said composition; an oligomer component present in said composition in an amount of 1% to 15% by weight of said UV curable inkjet ink composition; a monomer component present in said composition in an amount of 30% to 60% by weight of said UV curable inkjet ink composition; and a photo-initiator component present in said composition in an amount of 1% to 20% by weight of said UV curable inkjet ink composition; and a dendritic or hyperbranched polyester acrylate component present in said UV curable inkjet ink composition in an amount of 10% to 45% by weight of said composition; an oligomer component present in said composition in an amount of 1% to 15% by weight of said UV curable inkjet ink composition; a monomer component present in said composition in an amount of 30% to 60% by weight of said UV curable inkjet ink composition; and a photo-initiator component present in said composition in an amount of 1% to 20% by weight of said UV curable inkjet ink composition; and a colorant component present in said UV curable inkjet ink composition in an amount of no greater than 5% by weight of said UV curable inkjet ink composition, said colorant comprising a white pigment, wherein the white pigment comprises zinc oxide; wherein said UV curable inkjet ink composition is configured for concurrent delivery and blending with said second UV curable inkjet ink before subsequent UV curing.
Mobile communication terminal (MG) for the location-dependent controlling of comfort variables of a room (R), the mobile communication terminal (MG) comprising: a sensor system (S) for capturing the value of at least one comfort variable (BS,T); a receiving device (EV) for receiving actual values of actuators (L,H) for adjusting the at least one comfort variable (BS,T); an output device (BO) for outputting the value of the at least one comfort variable (BS,T) and the actual values of the actuators (L,H); an input device (BO) for actuating the actuators (L,H), wherein the actuating of the actuators (L,H) takes place by way of a near field communication (NFC) between the mobile communication terminal (MG) and a building controller (GBS) responsible for the room; and an interface (ES) for connecting to an external sensor system, characterised in that the mobile communication terminal (MG) is designed to use the external sensor system linked to the mobile communication terminal (MG) to regulate the comfort variables. a sensor system (S) for capturing the value of at least one comfort variable (BS,T); a receiving device (EV) for receiving actual values of actuators (L,H) for adjusting the at least one comfort variable (BS,T); an output device (BO) for outputting the value of the at least one comfort variable (BS,T) and the actual values of the actuators (L,H); an input device (BO) for actuating the actuators (L,H), wherein the actuating of the actuators (L,H) takes place by way of a near field communication (NFC) between the mobile communication terminal (MG) and a building controller (GBS) responsible for the room; and an interface (ES) for connecting to an external sensor system, characterised in that the mobile communication terminal (MG) is designed to use the external sensor system linked to the mobile communication terminal (MG) to regulate the comfort variables.
A method of maintaining data security, implemented in a network device provided between a sender and a recipient , characterized in that the method comprises: generating different keys comprising a secret key , a client key , and a server key , wherein the client and server keys form the secret key when combined, and the sender and recipient are prevented from accessing the server key ; encrypting data received from the sender with the secret key and subsequently discarding the secret key ; generating a Uniform Resource Locator, URL, for requesting the data from the network device , the URL comprising the client key and a randomly-generated data identifier associated with the data ; sending the URL to an electronic address of the recipient and discarding the client key in response; receiving a request comprising the client key and data identifier from the recipient ; recreating the secret key by combining the server key with the client key from the received request; decrypting the data using the recreated secret key . generating different keys comprising a secret key , a client key , and a server key , wherein the client and server keys form the secret key when combined, and the sender and recipient are prevented from accessing the server key ; encrypting data received from the sender with the secret key and subsequently discarding the secret key ; generating a Uniform Resource Locator, URL, for requesting the data from the network device , the URL comprising the client key and a randomly-generated data identifier associated with the data ; sending the URL to an electronic address of the recipient and discarding the client key in response; receiving a request comprising the client key and data identifier from the recipient ; recreating the secret key by combining the server key with the client key from the received request; decrypting the data using the recreated secret key .
A handle assembly for a pick-up truck tailgate , the handle assembly comprising: a. a guide tube with an open end; b. a handle portion that is received within the guide tube ; c. a pivot assembly that comprises a body, a locking pin , a pivot pin , a release lever and a biasing member , wherein the pivot pin is connected to one end of the handle ; the pivot assembly is received within the guide tube ; the release lever is pivotally connected at one end to the body of the pivot assembly and the biasing member is connected at a first end to the pivot assembly at a position above the release lever and connected at a second end to the release lever , distal from the pivotally connected end of the release lever ; and the locking pin is fixed to the release lever ; wherein the handle portion is moveable within the guide tube between a retracted position and an extended position, and in the extended position the handle portion passes through the open end of the guide tube and the handle portion is pivotable about the pivot pin to move to a support position, the pivot assembly remains at least partially received within the guide tube or it is positioned near the open end of the guide tube and the locking pin is engaged with the handle portion to releasably lock the handle portion in the support position; and wherein the guide tube is secured within the tailgate of the pick-up truck. a. a guide tube with an open end; b. a handle portion that is received within the guide tube ; c. a pivot assembly that comprises a body, a locking pin , a pivot pin , a release lever and a biasing member , wherein the pivot pin is connected to one end of the handle ; the pivot assembly is received within the guide tube ; the release lever is pivotally connected at one end to the body of the pivot assembly and the biasing member is connected at a first end to the pivot assembly at a position above the release lever and connected at a second end to the release lever , distal from the pivotally connected end of the release lever ; and the locking pin is fixed to the release lever ; wherein the handle portion is moveable within the guide tube between a retracted position and an extended position, and in the extended position the handle portion passes through the open end of the guide tube and the handle portion is pivotable about the pivot pin to move to a support position, the pivot assembly remains at least partially received within the guide tube or it is positioned near the open end of the guide tube and the locking pin is engaged with the handle portion to releasably lock the handle portion in the support position; and wherein the guide tube is secured within the tailgate of the pick-up truck.
A topically administrable vasodilator formulation comprising: (i) arginine; (ii) black pepper extract; and (iii) peppermint extract. (i) arginine; (ii) black pepper extract; and (iii) peppermint extract.
Atorvastatin or a pharmaceutically acceptable salt thereof for use in the prevention or treatment of human or animal periodontal disease, wherein the atorvastatin or the pharmaceutically acceptable salt thereof is formulated for topical administration.
A method used in Dynamic Adaptive Streaming over HTTP, DASH, comprising a Multimedia Presentation Description, MPD, manifest that defines formats to announce identifiers to a client device for a collection of encoded and deliverable versions of media content, for associating in the manifest a first at least one Representation with a second at least one Representation in adaptive streaming, the method comprising: determining whether a first adaptation-set of the manifest containing the first at least one Representation is associated with a second adaptation-set of the manifest containing the second at least one Representation; and, introducing an attribute, associateRepId, at Representation level in the second adaptation-set , wherein the associateRepId lists identifiers of at least one first Representation in the first adaptation-set that the second at least one Representation in the second adaptation-set is associated with. determining whether a first adaptation-set of the manifest containing the first at least one Representation is associated with a second adaptation-set of the manifest containing the second at least one Representation; and, introducing an attribute, associateRepId, at Representation level in the second adaptation-set , wherein the associateRepId lists identifiers of at least one first Representation in the first adaptation-set that the second at least one Representation in the second adaptation-set is associated with.
An underlayer composition for a disc brake pad, containing, relative to the entire amount of the underlayer composition, 5-15 weight % of an uncrosslinked fluororubber, 4 - 8 weight % of a phenol-based resin as a binder, and 0.3 - 2 weight % of hexamethylenetetramine as a curing agent for the phenol-based resin. 5-15 weight % of an uncrosslinked fluororubber, 4 - 8 weight % of a phenol-based resin as a binder, and 0.3 - 2 weight % of hexamethylenetetramine as a curing agent for the phenol-based resin.
Surface acoustic wave component consisting at least of a piezoelectric material, interdigital transducers and electrical contacts, wherein at least one strain-absorbing, elastic layer is present between the piezoelectric material and the interdigital transducers, at least partly in the region of the aperture of the interdigital transducers, wherein the strain-absorbing, elastic layer is defined at least by the roughness of the surfaces of the interdigital transducers and of the piezoelectric material and at most by a spacing of 1000 nm, and wherein the strain-absorbing, elastic layer consists of a polymer or a photoresist, and wherein the strain-absorbing, elastic layer consists of a material with a lower average modulus of elasticity than that of the material of the interdigital transducers.
Laser device with wavefront control, wherein the laser device includes the following elements: a) a resonator with an optical path, a laser medium located within the resonator for generation of a working laser beam, and a wavefront regulating unit located within the resonator, b) a coupling element, designed in such a way that a probe laser beam of a probe laser device can be coupled into the optical path of the resonator, c) a decoupling element, designed in such a way that the probe laser beam can be decoupled from the resonator, d) a wavefront controller and a wavefront sensor , wherein the laser device is designed in such a way e) that the probe laser beam impacts first the coupling element, then the laser medium , then the wavefront regulating unit , then the decoupling element, and then the wavefront sensor , f) that the thermal and thermo-mechanical disturbances of the phase front, generated within the laser medium , are transferred to a wavefront of the probe laser beam, g) that the disturbance of the probe laser beam, and thereby that of the working laser beam, can be corrected by the wavefront regulating unit , h) that sensor data can be received from the wavefront sensor and can be processed by the wavefront controller , i) that control signals for the wavefront regulating unit can be generated by the wavefront controller , and wherein the laser device is characterized in that the probe laser beam impacts first the coupling element, then the laser medium , then the wavefront regulating unit , then the decoupling element, and then the wavefront sensor . a) a resonator with an optical path, a laser medium located within the resonator for generation of a working laser beam, and a wavefront regulating unit located within the resonator, b) a coupling element, designed in such a way that a probe laser beam of a probe laser device can be coupled into the optical path of the resonator, c) a decoupling element, designed in such a way that the probe laser beam can be decoupled from the resonator, d) a wavefront controller and a wavefront sensor , wherein the laser device is designed in such a way e) that the probe laser beam impacts first the coupling element, then the laser medium , then the wavefront regulating unit , then the decoupling element, and then the wavefront sensor , f) that the thermal and thermo-mechanical disturbances of the phase front, generated within the laser medium , are transferred to a wavefront of the probe laser beam, g) that the disturbance of the probe laser beam, and thereby that of the working laser beam, can be corrected by the wavefront regulating unit , h) that sensor data can be received from the wavefront sensor and can be processed by the wavefront controller , i) that control signals for the wavefront regulating unit can be generated by the wavefront controller ,