mhurhangee/ep-ind-claims huggingface dataset:
A production method of a vacuum insulating glass comprising: a step (a) of forming an assembly body by joining a first glass substrate with a through hole to a second glass substrate via a joint layer so as to form a gap between the first glass substrate and the second glass substrate; a step (b) of applying a decompression process to the gap of the assembly body via the through hole of the first glass substrate; and a step (c) of sealing the through hole by using a sealing plate with a sealing material, the sealing including heating the sealing material to be softened, joining the sealing plate to the first glass substrate, and sealing the through hole, wherein in the step (c), by heating the sealing plate together with the sealing material in a state where the sealing plate is in contact with a getter via a heat transfer body, the getter is heated, and the getter is arranged in the gap in an activated state before the step (c) is completed, wherein the heat transfer body is an adhesive member. a step (a) of forming an assembly body by joining a first glass substrate with a through hole to a second glass substrate via a joint layer so as to form a gap between the first glass substrate and the second glass substrate; a step (b) of applying a decompression process to the gap of the assembly body via the through hole of the first glass substrate; and a step (c) of sealing the through hole by using a sealing plate with a sealing material, the sealing including heating the sealing material to be softened, joining the sealing plate to the first glass substrate, and sealing the through hole, wherein in the step (c), by heating the sealing plate together with the sealing material in a state where the sealing plate is in contact with a getter via a heat transfer body, the getter is heated, and the getter is arranged in the gap in an activated state before the step (c) is completed, wherein the heat transfer body is an adhesive member.
A dressing comprising a liquid resistant sheet and disposed thereon first and second adhesive strips (102,104), wherein the first and second adhesive strips (102,104) are concentric; are located at or near the periphery of the liquid resistant sheet; are separated from one another by a gap, and are impermeable to liquids, characterised in that the gap is filled with a liquid indicator.
A method for detecting a contact fault in a photovoltaic system, wherein the photovoltaic system comprises an inverter and a photovoltaic generator connected to the inverter via DC current lines (12a, 12b), wherein the inverter comprises coupling-in means for coupling a first AC voltage signal having communication frequencies in a first frequency range between 125 kHz and 150 kHz into the DC current lines (12a, 12b), wherein the inverter communicates with the photovoltaic generator by way of the first AC voltage signal, wherein a coupling-out means for coupling out the first AC voltage signal is arranged at the photovoltaic generator and a decoupling means for decoupling the impedance of the photovoltaic generator is arranged between the inverter and the photovoltaic generator, such that the photovoltaic generator is decoupled from a transmission path between the inverter and the decoupling means, and wherein AC currents are measured in the DC current lines (12a, 12b) and AC voltages are measured between the DC current lines (12a, 12b), characterized in that - a second AC voltage signal having measurement frequencies in a second frequency range is generated by way of the coupling-in means, - a frequency-dependent impedance profile is determined based on the second AC voltage signal and the measured AC currents in the second frequency range between 50 kHz and 350 kHz, preferably between 75 kHz and 200 kHz, wherein the second frequency range comprises the first frequency range, and - a contact fault in the photovoltaic system is detected by way of analyzing the frequency-dependent impedance profile. - a second AC voltage signal having measurement frequencies in a second frequency range is generated by way of the coupling-in means, - a frequency-dependent impedance profile is determined based on the second AC voltage signal and the measured AC currents in the second frequency range between 50 kHz and 350 kHz, preferably between 75 kHz and 200 kHz, wherein the second frequency range comprises the first frequency range, and - a contact fault in the photovoltaic system is detected by way of analyzing the frequency-dependent impedance profile.
A volume adjustment method, comprising: collecting, by a terminal, sound data during a voice conversation, wherein the sound data comprises uplink voice data and background noise; and adjusting, by the terminal when receiving downlink voice data, a volume of the downlink voice data; wherein the adjusting, by the terminal, the volume of the downlink voice data comprises: determining, by the terminal, whether a volume parameter of the background noise is greater than or equal to a first preset value; characterized by if the volume parameter of the background noise is greater than or equal to the first preset value, adjusting, by the terminal, the volume of the downlink voice data based on the volume parameter of the background noise; or if the volume parameter of the background noise is less than the first preset value, adjusting, by the terminal, the volume of the downlink voice data based on the volume parameter of the sound data. collecting, by a terminal, sound data during a voice conversation, wherein the sound data comprises uplink voice data and background noise; and adjusting, by the terminal when receiving downlink voice data, a volume of the downlink voice data; wherein the adjusting, by the terminal, the volume of the downlink voice data comprises: determining, by the terminal, whether a volume parameter of the background noise is greater than or equal to a first preset value; characterized by if the volume parameter of the background noise is greater than or equal to the first preset value, adjusting, by the terminal, the volume of the downlink voice data based on the volume parameter of the background noise; or if the volume parameter of the background noise is less than the first preset value, adjusting, by the terminal, the volume of the downlink voice data based on the volume parameter of the sound data. determining, by the terminal, whether a volume parameter of the background noise is greater than or equal to a first preset value; characterized by if the volume parameter of the background noise is greater than or equal to the first preset value, adjusting, by the terminal, the volume of the downlink voice data based on the volume parameter of the background noise; or if the volume parameter of the background noise is less than the first preset value, adjusting, by the terminal, the volume of the downlink voice data based on the volume parameter of the sound data.
Device for positioning sterile instruments, in particular puncture needles, injection needles or surgical probes, with respect to a patient, with a sheath which is sterile at least on its inner side and an instrument, wherein the sheath at least partially encloses the sterile instrument, and with at least one gas-tight passage mounted at the sheath, wherein the sterile instrument has at least one sterile instrument holder which passes through the passage to coupling parts and is movable in a controlled manner in at least two spatial directions by movement of the instrument holder outside the sheath, characterized in that the sheath has an annular adhesive surface, directed towards the patient, for fixing the sheath together with the instrument on an interventional site in a gas-tight manner.
A hydromechanical transmission with a mechanical transmission and a continuously variable hydrostatic transmission which cooperates with the mechanical transmission, wherein the mechanical transmission and the hydrostatic transmission are accommodated in a transmission housing of the hydromechanical transmission, wherein the hydrostatic transmission comprises a hydrostatic unit (13; 14) operating as a pump and a hydrostatic unit (14; 13) operating as a motor, which are hydraulically connected in order to transmit motive power, wherein the hydrostatic transmission comprises a bearing bridge in which the hydrostatic units (13, 14) are rotatably mounted, characterized in that the bearing bridge is formed split into two, comprising a first bearing bridge element (22.1) and a second bearing bridge element (22.2), the first bearing bridge element (22.1) comprises channels which are hydraulically connected to a positioning device of the hydrostatic transmission in order to change a delivery and/or displacement volume of the hydrostatic units (13, 14), and the second bearing bridge element (22.2) comprises channels which hydraulically connect the hydrostatic units (13, 14) together in order to transmit the motive power. the bearing bridge is formed split into two, comprising a first bearing bridge element (22.1) and a second bearing bridge element (22.2), the first bearing bridge element (22.1) comprises channels which are hydraulically connected to a positioning device of the hydrostatic transmission in order to change a delivery and/or displacement volume of the hydrostatic units (13, 14), and the second bearing bridge element (22.2) comprises channels which hydraulically connect the hydrostatic units (13, 14) together in order to transmit the motive power.
System for localising RFID transponders comprising a system for electromagnetically querying RFID transponders, comprising at least one RFID terminal comprising at least one RFID reader, the at least one RFID terminal is configured to emit a querying signal at a frequency F1, characterised in that the system comprises at least one so-called repeater RFID device, in that the at least one repeater is configured to repeat at a frequency F2 different from F1, said querying signal of frequency F1, said repeated querying signal of frequency F2 being intended to be received by the at least one RFID transponder, in that the at least one RFID transponder is configured to emit a back-scattered response signal at a frequency F3 in response to the receiving of said repeated querying signal and characterised in that in order to repeat at a frequency F2 said querying signal of frequency F1 the at least one repeater is configured to achieve an only analogue frequency transposition from the frequency F1 to the frequency F2, the at least one repeater comprising a reference signal generator and the only analogue frequency transposition comprising a mixture of said querying signal of frequency F1 with a reference signal generated by said reference signal generator at a frequency F1-F2 and/or F1+F2 so as to provide said repeated querying signal of frequency F2, the at least one RFID transponder being localised in a querying space covered by the repeater, and in that the repeater comprises at least two querying antennas at the frequency F2, of which the radiation is controlled by the at least one RFID terminal making it possible for a localisation, by scanning the querying space, of the at least one RFID transponder.
A method of transmitting Device-to-Device, D2D, data by a D2D transmitting User Equipment, Tx UE, in a wireless communication system, the method comprising: determining, at the Tx UE, a bitmap indicating at least one subframe for data transmission within a subframe pool, wherein each bit of the bitmap indicates whether the D2D data can be transmitted in a corresponding subframe within the subframe pool; transmitting, by the Tx UE, control information indicating the determined bitmap through a channel for a scheduling assignment to a D2D receiving UE, Rx UE; transmitting, by the Tx UE, the D2D data to the Rx UE in the at least one subframe indicated by the bitmap,wherein the bitmap is determined from a first set of bitmaps or a second set of bitmaps, wherein the first set of bitmaps are used when a Radio Resource Control, RRC, information element relating to a resource pattern subset is configured, wherein the second set of bitmaps are used when the RRC information element is not configured, and wherein the first set of bitmaps are a subset of the second set of bitmaps. determining, at the Tx UE, a bitmap indicating at least one subframe for data transmission within a subframe pool, wherein each bit of the bitmap indicates whether the D2D data can be transmitted in a corresponding subframe within the subframe pool; transmitting, by the Tx UE, control information indicating the determined bitmap through a channel for a scheduling assignment to a D2D receiving UE, Rx UE; transmitting, by the Tx UE, the D2D data to the Rx UE in the at least one subframe indicated by the bitmap,wherein the bitmap is determined from a first set of bitmaps or a second set of bitmaps, wherein the first set of bitmaps are used when a Radio Resource Control, RRC, information element relating to a resource pattern subset is configured, wherein the second set of bitmaps are used when the RRC information element is not configured, and wherein the first set of bitmaps are a subset of the second set of bitmaps.
A probiotic composition for use in a method of establishing or enhancing a bacteria population in the oral cavity in the treatment or prevention of a disease of nitric oxide insufficiency, wherein the disease of nitric oxide insufficiency is cardiovascular disease, atherosclerosis, stroke, ischemic injury, peripheral artery disease, congestive heart failure, hypertension, pulmonary arterial hypertension, hypertension associated with urea cycle disorders and pre-eclampsia, vascular dementia, Alzheimer's Disease, metabolic syndrome, type 2 diabetes, or myocardial infarction, further characterized in that the probiotic composition comprises one or more bacteria selected from the group consisting of Neisseria, Haemophilus, Prevotella, and Leptotrichia, wherein the probiotic composition is configured to release at least a portion of the bacteria in the oral cavity, and wherein the probiotic composition contains equal to or less than 5% of Lactobacillus.
A method for practicing fitting eyewear frames to a face, the method comprising: providing a bust of a human head according to claim 3 or 4, adjusting at least one of the pair of eyes, the pair of ears, the forehead, the nose, and the pair of cheeks; and fitting an eyewear frame to the bust. providing a bust of a human head according to claim 3 or 4, adjusting at least one of the pair of eyes, the pair of ears, the forehead, the nose, and the pair of cheeks; and fitting an eyewear frame to the bust.
A display apparatus comprising: a display surface configured to display an image; and a concave mirror configured to reflect light beams from the display surface toward a transparent member reflecting some of the light beams that have been input thereto and transmitting the remaining light beams that have been input thereto, wherein a first light beam and a second light beam that reach the transparent member from one point on the display surface are incident on the transparent member in parallel to each other by the reflection in the concave mirror, and a virtual image of the image is presented by the transparent member, a curvature of the concave mirror or a distance on an optical path from the concave mirror to the display surface is adjusted in such a way that an optical path of the first light beam after the first light beam is reflected in the transparent member coincides with an optical path of the second light beam after the second light beam is reflected in the transparent member. a display surface configured to display an image; and a concave mirror configured to reflect light beams from the display surface toward a transparent member reflecting some of the light beams that have been input thereto and transmitting the remaining light beams that have been input thereto, wherein a first light beam and a second light beam that reach the transparent member from one point on the display surface are incident on the transparent member in parallel to each other by the reflection in the concave mirror, and a virtual image of the image is presented by the transparent member, a curvature of the concave mirror or a distance on an optical path from the concave mirror to the display surface is adjusted in such a way that an optical path of the first light beam after the first light beam is reflected in the transparent member coincides with an optical path of the second light beam after the second light beam is reflected in the transparent member.
Process for the production of an insulating material, where a plant-derived starting material comprising natural cavities is treated with a hydrophobizing agent, then the treated starting material is dried and the dried hydrophobized starting material is bound by an aqueous binder, where a. the binder prior to mixing with the hydrophobized dried starting material, or else the entire mixed composition made of binder and of hydrophobized starting material, is stirred/beaten to give a foam by folding-in of a gaseous fluid, and/or b. in order to form a foam, a pore-former, in particular an additive that forms gas bubbles, is added to the binder before mixing with the hydrophobized dried starting material, or else is added to the entire mixed composition, characterized in that c. the starting material is formed by a plant component comprising parenchymatic tissue, and during the treatment the cavity walls are wetted by hydrophobizing agent but complete filling of the cavities by hydrophobizing agent is avoided. a. the binder prior to mixing with the hydrophobized dried starting material, or else the entire mixed composition made of binder and of hydrophobized starting material, is stirred/beaten to give a foam by folding-in of a gaseous fluid, and/or b. in order to form a foam, a pore-former, in particular an additive that forms gas bubbles, is added to the binder before mixing with the hydrophobized dried starting material, or else is added to the entire mixed composition, characterized in that c. the starting material is formed by a plant component comprising parenchymatic tissue, and during the treatment the cavity walls are wetted by hydrophobizing agent but complete filling of the cavities by hydrophobizing agent is avoided.
A method in a network resource arbiter for load spreading in a network having a set of nodes and links connecting the nodes to form a network topology, wherein the network resource arbiter includes a path selection module to compute a set of currently available equal cost paths between the nodes in the network based on the network topology, a set of per-link network resource utilization indications, and a set of equal cost load spreading algorithms used at each of the nodes to determine path identifiers, the method characterised by the steps of: Receiving, from a load distribution module in an edge network element, a request to allocate network resources for a flow between a given source node and a given destination node, wherein the request includes a resource requirement for the flow; selecting a path from the currently available equal cost paths between the given source node and the given destination node that has sufficient available resources to satisfy the resource requirement of the flow; determining a path identifier value that represents the path selected to be used by the nodes in the network to correctly perform multipath forwarding for the flow; and communicating, to the load distribution module, the path identifier value that represents the path selected, wherein the path identifier value is to be inserted by the edge network element into subsequent frames belonging to the flow to be used in subsequent forwarding decisions to be made by nodes along the path selected. Receiving, from a load distribution module in an edge network element, a request to allocate network resources for a flow between a given source node and a given destination node, wherein the request includes a resource requirement for the flow; selecting a path from the currently available equal cost paths between the given source node and the given destination node that has sufficient available resources to satisfy the resource requirement of the flow; determining a path identifier value that represents the path selected to be used by the nodes in the network to correctly perform multipath forwarding for the flow; and communicating, to the load distribution module, the path identifier value that represents the path selected, wherein the path identifier value is to be inserted by the edge network element into subsequent frames belonging to the flow to be used in subsequent forwarding decisions to be made by nodes along the path selected.
A compound of formula III: or a salt thereof; or a hydrate, solvate, or polymorph thereof; wherein: n is 0-2; R 5 and R 11 each are independently H, alkyl or Z 1; R 9 is alkyl; R 10 is H, alkyl, or Z 1; each Z 1 is independently halogen, CN, NO 2, OR 15, SR 15, S ZOR 15, NR 15 R 16, C 1 -C 2 perfluoroalkyl, C 1 -C 2 perfluoroalkoxy, 1,2-methylenedioxy, C OR 15, C NR 15 R 16, OC NR 15 R 16, NR 15 C NR 15 R 16, C(NR 16)NR 15 R 16, NR 15 C(NR 16)NR 15 R 16, S 2 NR 15 R 16, R 17, C R 17, NR 15 C R 17, S R 17, S 2 R 17, R 16, oxo, C R 16, C (CH 2) m OH, (CH 2) m OR 15, (CH 2) mC NR 15 R 16, NR 15 S 2 R 17, where each m is independently 0-6; Each R 15 is independently hydrogen, C 1 -C 4 alkyl or C 3 -C 6 cycloalkyl; Each R 16 is independently hydrogen, alkenyl, alkynyl, C 3 -C 6 cycloalkyl, aryl, heterocyclyl, heteroaryl, C 1 -C 4 alkyl or C 1 -C 4 alkyl substituted with C 3 -C 6 cycloalkyl, aryl, heterocyclyl or heteroaryl; and Each R 17 is independently C 3 -C 6 cycloalkyl, aryl, heterocyclyl, heteroaryl, C 1 -C 4 alkyl or C 1 -C 4 alkyl substituted with C 3 -C 6 cycloalkyl, aryl, heterocyclyl or heteroaryl. n is 0-2; R 5 and R 11 each are independently H, alkyl or Z 1; R 9 is alkyl; R 10 is H, alkyl, or Z 1; each Z 1 is independently halogen, CN, NO 2, OR 15, SR 15, S ZOR 15, NR 15 R 16, C 1 -C 2 perfluoroalkyl, C 1 -C 2 perfluoroalkoxy, 1,2-methylenedioxy, C OR 15, C NR 15 R 16, OC NR 15 R 16, NR 15 C NR 15 R 16, C(NR 16)NR 15 R 16, NR 15 C(NR 16)NR 15 R 16, S 2 NR 15 R 16, R 17, C R 17, NR 15 C R 17, S R 17, S 2 R 17, R 16, oxo, C R 16, C (CH 2) m OH, (CH 2) m OR 15, (CH 2) mC NR 15 R 16, NR 15 S 2 R 17, where each m is independently 0-6; Each R 15 is independently hydrogen, C 1 -C 4 alkyl or C 3 -C 6 cycloalkyl; Each R 16 is independently hydrogen, alkenyl, alkynyl, C 3 -C 6 cycloalkyl, aryl, heterocyclyl, heteroaryl, C 1 -C 4 alkyl or C 1 -C 4 alkyl substituted with C 3 -C 6 cycloalkyl, aryl, heterocyclyl or heteroaryl; and Each R 17 is independently C 3 -C 6 cycloalkyl, aryl, heterocyclyl, heteroaryl, C 1 -C 4 alkyl or C 1 -C 4 alkyl substituted with C 3 -C 6 cycloalkyl, aryl, heterocyclyl or heteroaryl.