mhurhangee/patent-ind-claim-en huggingface dataset:
A glass substrate , comprising: a plurality of pixel structures disposed on one principal surface ; an input electrode , disposed on the one principal surface , for inputting a driving signal to the plurality of pixel structures; a back connection member disposed on another principal surface so as to be electrically connected to the input electrode ; a first insulating layer on the other principal surface , the first insulating layer lying over an effective region comprising the plurality of pixel structures, the first insulating layer comprising a top face located above a top face of the back connection member ; wherein the back connection member is covered with a second insulating layer , and the top face of the first insulating layer is located above a top face of the second insulating layer ; and further comprising a driver device that generates the driving signal, a placement position of which is disposed on the other principal surface , and in a position other than a placement position of the first insulating layer . a plurality of pixel structures disposed on one principal surface ; an input electrode , disposed on the one principal surface , for inputting a driving signal to the plurality of pixel structures; a back connection member disposed on another principal surface so as to be electrically connected to the input electrode ; a first insulating layer on the other principal surface , the first insulating layer lying over an effective region comprising the plurality of pixel structures, the first insulating layer comprising a top face located above a top face of the back connection member ; wherein the back connection member is covered with a second insulating layer , and the top face of the first insulating layer is located above a top face of the second insulating layer ; and further comprising a driver device that generates the driving signal, a placement position of which is disposed on the other principal surface , and in a position other than a placement position of the first insulating layer .
A bacterial strain, selected from the group consisting of i) a strain obtainable from deposit CBS 134400, ii) a strain comprising a nucleic acid sequence that has at least 99% identity to a sequence selected from the group consisting of SEQ ID NOs: 6-13, particularly comprising, for each member of the group consisting of SEQ ID NOs: 6-13, at least one nucleic acid sequence that has at least 99% identity to said member. i) a strain obtainable from deposit CBS 134400, ii) a strain comprising a nucleic acid sequence that has at least 99% identity to a sequence selected from the group consisting of SEQ ID NOs: 6-13, particularly comprising, for each member of the group consisting of SEQ ID NOs: 6-13, at least one nucleic acid sequence that has at least 99% identity to said member.
A refrigerating apparatus comprising a structure formed by insulating walls and at least one refrigeration enclosure , said refrigerating apparatus comprising a device for heat removal by heat pump installed on an insertable movable insulating tray in the upper portion of the refrigerating apparatus , wherein the insertable insulating tray is insertable by a system of surface-mounted flanges on the insulating walls , said insulating tray carrying on its upper portion the device for heat removal by heat pump and on its underside a static evaporator type cooling device consisting of a metallic tubular evaporator covered with at least one plasticised sleeve , characterised in that : said at least one plasticised sleeve forms a one-piece structure, the refrigeration enclosure comprises an opening in the front face sealed by a door, and the plasticised sleeve renders the metallic tubular evaporator completely hermetic to the air of the refrigeration enclosure . said at least one plasticised sleeve forms a one-piece structure, the refrigeration enclosure comprises an opening in the front face sealed by a door, and the plasticised sleeve renders the metallic tubular evaporator completely hermetic to the air of the refrigeration enclosure .
A seismic imaging method that comprises: obtaining multiple shot gathers, wherein a shot gather is a group of traces recorded for a single firing of a seismic source from a seismic survey for a survey region; grouping selected ones of the shot gathers with overlapping receiver positions r to form at least one multi-shot gather; concurrently determining on a multi-shot by multi-shot basis, for each shot position s and each receiver position r in the at least one multi-shot gather, a Green's function at scattering points x in the survey region, thereby calculating the Green's function wave field data volumes for a number of shots at the same time; combining said Green's functions to find an illumination value at each of said scattering points x ; finding a reflectivity value at each of said scattering points x based at least in part on the illumination values; and displaying an image of the survey region to a user, wherein the image is based at least in part on said reflectivity values of said scattering points x . obtaining multiple shot gathers, wherein a shot gather is a group of traces recorded for a single firing of a seismic source from a seismic survey for a survey region; grouping selected ones of the shot gathers with overlapping receiver positions r to form at least one multi-shot gather; concurrently determining on a multi-shot by multi-shot basis, for each shot position s and each receiver position r in the at least one multi-shot gather, a Green's function at scattering points x in the survey region, thereby calculating the Green's function wave field data volumes for a number of shots at the same time; combining said Green's functions to find an illumination value at each of said scattering points x ; finding a reflectivity value at each of said scattering points x based at least in part on the illumination values; and displaying an image of the survey region to a user, wherein the image is based at least in part on said reflectivity values of said scattering points x .
A spinning controller for controlling a drive mechanism to spin an NMR sample tube based on spinning pulse signals generated in synchronism with spinning of the sample tube , comprising; computing means for counting the spinning pulse signals during each of successive gate periods of a given duration Tg and finding a spinning rate (F) based on division of the number of spinning pulse signals Ns counted during each gate period; control signal generating means to generate a feedback control signal based on an obtained spinning rate (F) and to supply the feedback control signal to the drive mechanism , characterized in that the spinning pulse signals and the successive gate periods are not synchronized with each other; and wherein said computing means is configured to use a first delay time ΔT1 from the beginning edge of each of the gate periods to the next edge of the spinning pulse signal and a second delay time ΔT2 from the ending edge of each of the gate periods to the next edge of the spinning pulse signal for calculating a corrected gate period Tg' expressed as Tg'= Tg-ΔT1+ΔT2 and to calculate the spinning rate based on division of the number of spinning pulse signals Ns and the corrected gate period Tg'.
A package being able to disintegrate within two years after first and continuous exposure to water and sealant-degrading microorganisms while having a shelf life of at least one year when containing a liquid consumer product, said package comprising: (a) a biodegradable sealant having a thickness of 12 μm to 100 μm; (b) a barrier material selected from the group consisting of a metal, a metal oxide, a nanoclay, and a mixture thereof coating the sealant, wherein the barrier material has a thickness of 200 Å to 50 μm and a surface that has an energy of at least 38 dynes per centimeter (dyne/cm), or that is treatable to an energy of at least 38 dyne/cm; and, (c) ink deposited on the barrier material, and having a thickness of 1 μm to 20 μm; wherein the package has a moisture vapor transmission rate (MVTR) of less than 10 grams per square meter per day (g/m 2 /day) at 37 °C and 90% relative humidity (RH), determined using ASTM F1249. (a) a biodegradable sealant having a thickness of 12 μm to 100 μm; (b) a barrier material selected from the group consisting of a metal, a metal oxide, a nanoclay, and a mixture thereof coating the sealant, wherein the barrier material has a thickness of 200 Å to 50 μm and a surface that has an energy of at least 38 dynes per centimeter (dyne/cm), or that is treatable to an energy of at least 38 dyne/cm; and, (c) ink deposited on the barrier material, and having a thickness of 1 μm to 20 μm;
A method for wireless communication , comprising: receiving (525; 1005), at a wireless device in a wireless mesh network, a first message including configuration information for a priority communication that is to be transmitted from a first network node to a second network node ; generating a second message to indicate at least one of resource information or configuration information; and transmitting (540; 1010), based at least in part on receipt of the first message, the second message to the second network node, the second message indicating the at least one of resource information or configuration information to be used by the second network node in receipt of the priority communication. receiving (525; 1005), at a wireless device in a wireless mesh network, a first message including configuration information for a priority communication that is to be transmitted from a first network node to a second network node ; generating a second message to indicate at least one of resource information or configuration information; and transmitting (540; 1010), based at least in part on receipt of the first message, the second message to the second network node, the second message indicating the at least one of resource information or configuration information to be used by the second network node in receipt of the priority communication.
A camera module, comprising a support mechanism, a filter and a sensor disposed corresponding to the filter , wherein the support mechanism comprises substrates , support frames and buffers , the support frames each are disposed on the substrates , an edge of the filter is fixed on the support frames , an assembly gap is formed between the support frames and the substrates , and the buffers each are disposed in the assembly gap and arranged to provide support between the support frames and the substrates ; characterized in that either: there are at least three support frames and at least three substrates , all the substrates are distributed on a periphery of the sensor , and all the support frames are distributed on a periphery of the filter and disposed on the corresponding substrates respectively, or there are two support frames and two substrates , the two substrates are disposed on two opposite sides of the sensor respectively, and the two support frames are disposed on the two substrates respectively and located on two opposite sides of the filter respectively. there are at least three support frames and at least three substrates , all the substrates are distributed on a periphery of the sensor , and all the support frames are distributed on a periphery of the filter and disposed on the corresponding substrates respectively, or there are two support frames and two substrates , the two substrates are disposed on two opposite sides of the sensor respectively, and the two support frames are disposed on the two substrates respectively and located on two opposite sides of the filter respectively.
Actuator comprising a housing , a gear , an engageable manual drive shaft for the manual drive and a manual operating element ; wherein the manual operating element can be detachably connected to the housing and wherein the manual operating element , in a position connected to the housing , forces a direct or indirect coupling of the manual drive shaft to the gear , wherein the manual operating element , in the position connected to the housing , forces the manual drive shaft against a restoring force into a coupled position along a longitudinal axis of the manual drive shaft , wherein the manual operating element is rotatably arranged in a receiving element , wherein the receiving element is connectable to the housing by means of a bayonet catch, and wherein the manual operating element comprises the receiving element , which rotatably engages with the housing . comprising a housing , a gear , an engageable manual drive shaft for the manual drive and a manual operating element ; wherein the manual operating element can be detachably connected to the housing and wherein the manual operating element , in a position connected to the housing , forces a direct or indirect coupling of the manual drive shaft to the gear , wherein the manual operating element , in the position connected to the housing , forces the manual drive shaft against a restoring force into a coupled position along a longitudinal axis of the manual drive shaft , wherein the manual operating element is rotatably arranged in a receiving element , wherein the receiving element is connectable to the housing by means of a bayonet catch, and wherein the manual operating element comprises the receiving element , which rotatably engages with the housing .
Method for producing a multilayer component comprising the following steps: A) providing a body having dielectric layers arranged one above another and first and second electrically conductive layers arranged therebetween, wherein the first conductive layers are connected to a first auxiliary electrode and the second conductive layers are connected to a second auxiliary electrode , wherein the auxiliary electrodes are arranged at two opposite side surfaces of the body , B) introducing at least one part of the body into an etching medium and applying a voltage between the first and second auxiliary electrodes , as a result of which a material removal from at least one of the first and second electrically conductive layers is produced. A) providing a body having dielectric layers arranged one above another and first and second electrically conductive layers arranged therebetween, wherein the first conductive layers are connected to a first auxiliary electrode and the second conductive layers are connected to a second auxiliary electrode , wherein the auxiliary electrodes are arranged at two opposite side surfaces of the body , B) introducing at least one part of the body into an etching medium and applying a voltage between the first and second auxiliary electrodes , as a result of which a material removal from at least one of the first and second electrically conductive layers is produced.
A network appliance comprising one or more digital logic hardware elements configured to: receive market data at the network appliance from a first location at an incoming data transfer rate; and transmit, from the network appliance, to a second location different from the first location over a wireless transmission line, a plurality of messages based on the market data, at an outgoing data transfer rate less than or equal to a predetermined data transfer rate, wherein the one or more digital logic hardware elements comprise a rate limiter configured to set the predetermined data transfer rate based on a maximum data transfer rate detected for the wireless transmission line and regulate the outgoing data transfer rate to ensure that the outgoing data transfer rate is less than or equal to the predetermined data transfer rate, wherein the predetermined data transfer rate is less than the incoming data transfer rate, wherein the one or more digital logic hardware elements comprise a field programmable gate array (FPGA) having the rate limiter thereon, and wherein the rate limiter comprises registers configured to store values indicating a maximum amount of data to be sent during a transmission period and logic configured to: determine when and how much data may be sent over the transmission line during the transmission period based on the values in the registers; and update values for the amount of data sent during the transmission period. receive market data at the network appliance from a first location at an incoming data transfer rate; and transmit, from the network appliance, to a second location different from the first location over a wireless transmission line, a plurality of messages based on the market data, at an outgoing data transfer rate less than or equal to a predetermined data transfer rate, wherein the one or more digital logic hardware elements comprise a rate limiter configured to set the predetermined data transfer rate based on a maximum data transfer rate detected for the wireless transmission line and regulate the outgoing data transfer rate to ensure that the outgoing data transfer rate is less than or equal to the predetermined data transfer rate, wherein the predetermined data transfer rate is less than the incoming data transfer rate, wherein the one or more digital logic hardware elements comprise a field programmable gate array (FPGA) having the rate limiter thereon, and wherein the rate limiter comprises registers configured to store values indicating a maximum amount of data to be sent during a transmission period and logic configured to: determine when and how much data may be sent over the transmission line during the transmission period based on the values in the registers; and update values for the amount of data sent during the transmission period. determine when and how much data may be sent over the transmission line during the transmission period based on the values in the registers; and update values for the amount of data sent during the transmission period.
An optical format converter for converting a phase modulation format of a modulated coherent optical signal into an intensity modulation format, comprising a waveguide-coupled cavity structure (2, 2', 2") comprising an optical waveguide having an input port for receiving an optical signal and an output port for providing an output optical signal, wherein the waveguide-coupled cavity structure is configured to exhibit Fano resonance and wherein a transmission spectrum of the Fano resonance overlaps with a spectrum of a received modulated coherent optical signal to suppress transmission of at least one sideband of the modulated coherent optical signal through the waveguide-coupled cavity structure, the sideband suppression being asymmetrical with respect to a carrier frequency of the modulated coherent optical signal.
An aerosol generating system comprising: an aerosol generating substrate ; an inductor for generating a primary electromagnetic field ; characterized by : a primary susceptor configured to be inductively heated by the primary electromagnetic field and to solely heat the aerosol generating substrate ; and a secondary susceptor configured to solely generate a secondary electromagnetic field acting in opposition to the primary electromagnetic field , wherein the secondary electromagnetic field is generated under the influence of the primary electromagnetic field . an aerosol generating substrate ; an inductor for generating a primary electromagnetic field ; characterized by : a primary susceptor configured to be inductively heated by the primary electromagnetic field and to solely heat the aerosol generating substrate ; and a secondary susceptor configured to solely generate a secondary electromagnetic field acting in opposition to the primary electromagnetic field , wherein the secondary electromagnetic field is generated under the influence of the primary electromagnetic field . a primary susceptor configured to be inductively heated by the primary electromagnetic field and to solely heat the aerosol generating substrate ; and a secondary susceptor configured to solely generate a secondary electromagnetic field acting in opposition to the primary electromagnetic field , wherein the secondary electromagnetic field is generated under the influence of the primary electromagnetic field .
A method performed by a server-side network attachment point, sNAP, operating as a transparent hypertext transfer protocol, HTTP, proxy on an information-centric network, ICN, the method comprising: receiving, from a client-side network attachment point, cNAP, an incoming ICN message that includes an HTTP request, a request content identifier, CID, a request reverse content identifier, rCID, a request proxy rule identifier, PRID and a node identifier, NID, of the cNAP; wherein the message is the result of a publish event to the CID associated with a fully-qualified domain name, FQDN; generating a coincidental multicast, CMC, group, based on an identical rCID and PRID, by adding the NID of the cNAP to a list of nodes waiting on a response; sending the HTTP request to a web server associated with the FQDN and the sNAP; receiving an HTTP response from the server; wherein the HTTP response includes a resource requested in the HTTP request; and publishing an outgoing ICN message to all NIDs in the CMC group, the outgoing ICN message comprising the HTTP response, the PRID, and the rCID. receiving, from a client-side network attachment point, cNAP, an incoming ICN message that includes an HTTP request, a request content identifier, CID, a request reverse content identifier, rCID, a request proxy rule identifier, PRID and a node identifier, NID, of the cNAP; wherein the message is the result of a publish event to the CID associated with a fully-qualified domain name, FQDN; generating a coincidental multicast, CMC, group, based on an identical rCID and PRID, by adding the NID of the cNAP to a list of nodes waiting on a response; sending the HTTP request to a web server associated with the FQDN and the sNAP; receiving an HTTP response from the server; wherein the HTTP response includes a resource requested in the HTTP request; and publishing an outgoing ICN message to all NIDs in the CMC group, the outgoing ICN message comprising the HTTP response, the PRID, and the rCID.
A film having an Elmendorf tear in MD greater than or equal to 14.2 g/μm (360 g/mil), and a puncture peak force greater than or equal to 214 g/μm (12.0 lb/mil), or a puncture break energy greater than or equal to 165 N-m/mm (37.0 in-lb/mil), the film comprising a secondary polyethylene blend, the secondary polyethylene blend comprising two primary polyethylene blends, each primary polyethylene blend comprising two polyethylene compositions, each polyethylene composition having a density, wherein the density of each of the polyethylene compositions differs from the other in an amount between 0.050 g/cm 3 and 0.060 g/cm 3 , and each primary polyethylene blend having a density between 0.918 g/cm 3 and 0.922 g/cm 3 and an MI (I 2 ) between 0.90 g/10 min and 1.10 g/10 min. a puncture peak force greater than or equal to 214 g/μm (12.0 lb/mil), or a puncture break energy greater than or equal to 165 N-m/mm (37.0 in-lb/mil), the film comprising a secondary polyethylene blend, the secondary polyethylene blend comprising two primary polyethylene blends, each primary polyethylene blend comprising two polyethylene compositions, each polyethylene composition having a density, wherein the density of each of the polyethylene compositions differs from the other in an amount between 0.050 g/cm 3 and 0.060 g/cm 3 , and each primary polyethylene blend having a density between 0.918 g/cm 3 and 0.922 g/cm 3 and an MI (I 2 ) between 0.90 g/10 min and 1.10 g/10 min.
A railway or tramway track comprising a solid railway or a track grid with transverse sleepers , both with rails and fastening systems , the track being provided with noise and vibration reduction elements inserted between the rails and/or arranged along the outer sides of the rails and wherein the noise and vibration reduction elements contain at least one non-humic layer, which in use absorbs water, reduces its rate of flow and outflow and allows its evaporation, characterized in that the non-humic layer is composed of water-absorbing and water-permeable synthetic clumps or of a water-permeable porous agglomerate from inert, non-absorptive materials.