mhurhangee/patent-ind-claim-en huggingface dataset:
A green area maintenance system having: - an autonomous mobile green area maintenance robot , - a border sensing device for sensing position-related data (x1, y1, x3, y3, B1, B3) of a delimiting border of an area to be maintained , the border sensing device being designed for detachable attachment to the green area maintenance robot, - a recording device , the recording device being designed for the purpose of recording a series of border data (x1, y1, B1) sensed by means of the border sensing device of the delimiting border while the border sensing device is detached from the green area maintenance robot and is being guided along the delimiting border, and - a control unit , the control unit being designed for the purpose of controlling a movement of the green area maintenance robot on the area to be maintained in dependence on robot data (x3, y3, B3), in particular sensed by means of the border sensing device, and the recorded series of border data (x1, y1, x2, y2, B1) while the border sensing device is attached to the green area maintenance robot in such a way that the green area maintenance robot stays on the area to be maintained, characterized in - that the border sensing device comprises a rechargeable energy store for supplying the detached border sensing device with operating energy, and - that the green area maintenance robot is designed for the recharging of the energy store of the attached border sensing device. - an autonomous mobile green area maintenance robot , - a border sensing device for sensing position-related data (x1, y1, x3, y3, B1, B3) of a delimiting border of an area to be maintained , the border sensing device being designed for detachable attachment to the green area maintenance robot, - a recording device , the recording device being designed for the purpose of recording a series of border data (x1, y1, B1) sensed by means of the border sensing device of the delimiting border while the border sensing device is detached from the green area maintenance robot and is being guided along the delimiting border, and - a control unit , the control unit being designed for the purpose of controlling a movement of the green area maintenance robot on the area to be maintained in dependence on robot data (x3, y3, B3), in particular sensed by means of the border sensing device, and the recorded series of border data (x1, y1, x2, y2, B1) while the border sensing device is attached to the green area maintenance robot in such a way that the green area maintenance robot stays on the area to be maintained, - that the border sensing device comprises a rechargeable energy store for supplying the detached border sensing device with operating energy, and - that the green area maintenance robot is designed for the recharging of the energy store of the attached border sensing device.
A method for transmitting a signal, wherein the method comprises: determining (S210), by a terminal device, a plurality of Sounding Reference Signal, SRS, resource groups based on a Sounding Reference Signal Resource Indicator, SRI, in scheduling information, wherein the scheduling information is used for scheduling a plurality of Physical Uplink Shared Channels, PUSCH, and the plurality of SRS resource groups are corresponding to the plurality of PUSCHs; determining (S220), by the terminal device, transmission parameters of the plurality of PUSCHs based on the plurality of SRS resource groups; and receiving, by the terminal device, configuration information, wherein the configuration information is used for indicating a plurality of SRS resource sets, and the plurality of SRS resource groups belong to different SRS resource sets in the plurality of SRS resource sets, wherein the SRI comprises a plurality of index groups, and each index group in the plurality of index groups comprises indexes of SRS resources in one SRS resource group of the plurality of SRS resource groups in an SRS resource set to which said SRS resource belongs, and determining, by the terminal device, the plurality of SRS resource groups based on the SRI, comprises: determining, by the terminal device, the plurality of SRS resource groups from the at least one SRS resource set based on the plurality of index groups which are comprised in the SRI. determining (S210), by a terminal device, a plurality of Sounding Reference Signal, SRS, resource groups based on a Sounding Reference Signal Resource Indicator, SRI, in scheduling information, wherein the scheduling information is used for scheduling a plurality of Physical Uplink Shared Channels, PUSCH, and the plurality of SRS resource groups are corresponding to the plurality of PUSCHs; determining (S220), by the terminal device, transmission parameters of the plurality of PUSCHs based on the plurality of SRS resource groups; and receiving, by the terminal device, configuration information, wherein the configuration information is used for indicating a plurality of SRS resource sets, and the plurality of SRS resource groups belong to different SRS resource sets in the plurality of SRS resource sets, wherein the SRI comprises a plurality of index groups, and each index group in the plurality of index groups comprises indexes of SRS resources in one SRS resource group of the plurality of SRS resource groups in an SRS resource set to which said SRS resource belongs, and determining, by the terminal device, the plurality of SRS resource groups based on the SRI, comprises: determining, by the terminal device, the plurality of SRS resource groups from the at least one SRS resource set based on the plurality of index groups which are comprised in the SRI.
Method for characterizing, in a rarefied gaseous medium, layers of a multilayer porous structure allowing fluid communication between the layers and in which each layer comprises a set of pores, the method comprising the following steps: - flowing a gas through the pores of the porous structure; - measuring the temporal evolution of the gas pressure upstream of the porous structure and the temporal evolution of the gas pressure downstream of the porous structure; said method being characterised in that it further comprises the steps of: - establishing a model of gas flow in the porous structure taking into account the sliding speed of the gas at the gas/pore wall interface and assuming that the pressure drop of the gas through the porous structure is equal to the sum of the pressure drops of the gas through each layer of the porous structure; - adjusting the model of gas flow in the porous structure on the basis of an experimental curve of an experimental gas flow parameter in the porous structure plotted from measurements of the temporal evolution of said gas pressures upstream and downstream of the porous structure; and - determining at least one property of the set of pores of each layer from the thus adjusted gas flow model. - flowing a gas through the pores of the porous structure; - measuring the temporal evolution of the gas pressure upstream of the porous structure and the temporal evolution of the gas pressure downstream of the porous structure; - establishing a model of gas flow in the porous structure taking into account the sliding speed of the gas at the gas/pore wall interface and assuming that the pressure drop of the gas through the porous structure is equal to the sum of the pressure drops of the gas through each layer of the porous structure; - adjusting the model of gas flow in the porous structure on the basis of an experimental curve of an experimental gas flow parameter in the porous structure plotted from measurements of the temporal evolution of said gas pressures upstream and downstream of the porous structure; and - determining at least one property of the set of pores of each layer from the thus adjusted gas flow model.
A recombinase polymerase amplification composition comprising: a crowding agent; an oligonucleotide probe with a dual-hapten leaving group; and a nuclease enzyme, optionally wherein the nuclease is formamidopyrimidine DNA glycosylase; wherein the dual-hapten leaving group comprises: (i) or (ii) wherein R is OH or -NH(CH2) 6 OH. a crowding agent; an oligonucleotide probe with a dual-hapten leaving group; and a nuclease enzyme, optionally wherein the nuclease is formamidopyrimidine DNA glycosylase; wherein the dual-hapten leaving group comprises: (i) or (ii) (i) or (ii)
A method for manufacturing a photovoltaic module , comprising at least one photovoltaic cell between a first transparent layer forming a front face of the photovoltaic module and a second layer forming a rear face of the photovoltaic module , characterised in that it comprises: 1) a first step of depositing a first adhesive layer (SL1) based on a crosslinkable polymer material over the first layer intended to form the front face of the photovoltaic module , and in depositing a second adhesive layer (SL2) based on a crosslinkable polymer material over the second layer intended to form the rear face of the photovoltaic module , 2) a second step of carrying out a partial crosslinking of the two adhesive layers (SL1, SL2) based on a crosslinkable polymer material to form two partially crosslinked adhesive layers (SPR1, SPR2), 3) a third step of depositing said at least one photovoltaic cell over one (SPR1) of the two partially crosslinked adhesive layers (SPR1, SPR2), 4) a fourth step of forming a multilayer stack (1, SPR1, 4, SPR2, 2) by assembling one (SPR1) of the two partially crosslinked adhesive layers (SPR1, SPR2) over the other one (SPR2) of the two partially crosslinked adhesive layers (SPR1, SPR2), which comprises said at least one photovoltaic cell , 5) a fifth step of carrying out the lamination of the multilayer stack (1, SPR1, 4, SPR2, 2), and the completion of the crosslinking of the two partially crosslinked adhesive layers (SPR1, SPR2), the crosslinking rate implemented during the second step of partial crosslinking of the two adhesive layers (SL1, SL2) based on a crosslinkable polymer material being comprised between 40% and 70%. 1) a first step of depositing a first adhesive layer (SL1) based on a crosslinkable polymer material over the first layer intended to form the front face of the photovoltaic module , and in depositing a second adhesive layer (SL2) based on a crosslinkable polymer material over the second layer intended to form the rear face of the photovoltaic module , 2) a second step of carrying out a partial crosslinking of the two adhesive layers (SL1, SL2) based on a crosslinkable polymer material to form two partially crosslinked adhesive layers (SPR1, SPR2), 3) a third step of depositing said at least one photovoltaic cell over one (SPR1) of the two partially crosslinked adhesive layers (SPR1, SPR2), 4) a fourth step of forming a multilayer stack (1, SPR1, 4, SPR2, 2) by assembling one (SPR1) of the two partially crosslinked adhesive layers (SPR1, SPR2) over the other one (SPR2) of the two partially crosslinked adhesive layers (SPR1, SPR2), which comprises said at least one photovoltaic cell , 5) a fifth step of carrying out the lamination of the multilayer stack (1, SPR1, 4, SPR2, 2), and the completion of the crosslinking of the two partially crosslinked adhesive layers (SPR1, SPR2),
A steering axle assembly couplable to a body of a work machine, said steering axle assembly comprising: first and second wheel hub assemblies ; forward and rearward hydraulic cylinders coupled to each said first and second wheel hub assemblies for angularly adjusting positions of said first and second wheel hub assemblies with respect to said body ; and first and second telescoping axles pivotally connected to said wheel hub assemblies ; said forward and rearward hydraulic cylinders configured and arranged for axially extending and retracting said telescoping axles ; wherein said forward and rearward hydraulic cylinders are configured and arranged with respect to each other so that said first and second wheel hub assemblies are steerable to a transport position in which said wheel hub assemblies are angled sufficiently to reduce the overall width of said axle assembly from a width with said first and second hub assemblies axially aligned with one another, characterized in that said steered angles of said wheel hub assemblies for transport require wheels to be removed from said wheel hub assemblies ; that said first and second telescoping axles are fully retracted and said first and second wheel assemblies are angled forward for transport, and that said pivotal connections of said rearward hydraulic cylinders to said first and second wheel hub assemblies are outwardly of said pivotal connections of said forward hydraulic cylinders to said first and second wheel hub assemblies when said forward and rearward hydraulic cylinders are extended to equal lengths. first and second wheel hub assemblies ; forward and rearward hydraulic cylinders coupled to each said first and second wheel hub assemblies for angularly adjusting positions of said first and second wheel hub assemblies with respect to said body ; and first and second telescoping axles pivotally connected to said wheel hub assemblies ; said forward and rearward hydraulic cylinders configured and arranged for axially extending and retracting said telescoping axles ; wherein said forward and rearward hydraulic cylinders are configured and arranged with respect to each other so that said first and second wheel hub assemblies are steerable to a transport position in which said wheel hub assemblies are angled sufficiently to reduce the overall width of said axle assembly from a width with said first and second hub assemblies axially aligned with one another, characterized in that said steered angles of said wheel hub assemblies for transport require wheels to be removed from said wheel hub assemblies ; that said first and second telescoping axles are fully retracted and said first and second wheel assemblies are angled forward for transport, and that said pivotal connections of said rearward hydraulic cylinders to said first and second wheel hub assemblies are outwardly of said pivotal connections of said forward hydraulic cylinders to said first and second wheel hub assemblies when said forward and rearward hydraulic cylinders are extended to equal lengths.
Device with a membrane comprising a support, a membrane suspended from said support and at least one actuation module (MA) disposed facing a face of the membrane and distinct from said membrane , said actuation module (MA) comprising at least one first actuator comprising at least one first material capable of expanding and/or contracting under the effect of an outside stimulus secured to an element anchored to the support and distinct from the membrane , in such a way that, when an outside stimulus is applied to the first material , a bimetallic-strip effect appears between the first material and the element , deforming the element in the direction of the membrane and causing the deformation of the membrane , characterised in that said membrane is at least partly made of a polymer material and in that said device also comprises at least one electrostatic actuator configured to press at least a portion of the membrane against at least a portion of the actuator module (MA).
An information storage device configured to be installed in a removable device configured to be removably installed in an image forming apparatus body , the image forming apparatus body comprising a pin having a body side earth terminal (573e25), the information storage device comprising: an information storage unit that stores information to be transmitted to the image forming apparatus body ; a plurality of metallic terminals (35a1, 35a2, 35a3) disposed on a substrate , constituted to come in contact with body side terminals (573e2) installed in the image forming apparatus body ; and an earth terminal constituted to come in contact with the body side earth terminal (573e25); wherein the substrate holds the information storage unit , the plurality of metallic terminals (35al, 35a2, 35a3), and the earth terminal , and the substrate includes an opening (535b21) constituted for insertion of the pin, wherein the earth terminal is between two of the metallic terminals (35a1, 35a2, 35a3) and is constituted to establish the contact to the body side earth terminal (573e25) when the pin is inserted in the opening (535b21). an information storage unit that stores information to be transmitted to the image forming apparatus body ; a plurality of metallic terminals (35a1, 35a2, 35a3) disposed on a substrate , constituted to come in contact with body side terminals (573e2) installed in the image forming apparatus body ; and an earth terminal constituted to come in contact with the body side earth terminal (573e25); wherein the substrate holds the information storage unit , the plurality of metallic terminals (35al, 35a2, 35a3), and the earth terminal , and the substrate includes an opening (535b21) constituted for insertion of the pin, wherein the earth terminal is between two of the metallic terminals (35a1, 35a2, 35a3) and is constituted to establish the contact to the body side earth terminal (573e25) when the pin is inserted in the opening (535b21).
A noise attenuation assembly comprising: a first plate , a second plate and a third plate spaced apart from each other, the first plate , the second plate , and the third plate adapted to be disposed in a fluid passageway of a noise attenuator ; a first set of support rods coupled between the first plate and the second plate ; and a second set of support rods extending between and coupled to only the second plate and the third plate , the support rods of the second set aligned along respective axes offset from the support rods of the first set . a first plate , a second plate and a third plate spaced apart from each other, the first plate , the second plate , and the third plate adapted to be disposed in a fluid passageway of a noise attenuator ; a first set of support rods coupled between the first plate and the second plate ; and a second set of support rods extending between and coupled to only the second plate and the third plate , the support rods of the second set aligned along respective axes offset from the support rods of the first set .
A method for wireless communication , comprising: identifying a first set of resources allocated for control and data signaling for a first type of communications, wherein the first set of resources comprises a first frequency region of a system bandwidth and a first set of transmission time intervals, TTIs, each having a first duration; identifying a second set of resources allocated for control and data signaling for a second type of communications, wherein the second set of resources comprises a second frequency region of the system bandwidth, wherein the first type of communications comprises communications having a first nominal latency constraint that is stricter than a second nominal latency constraint for the second type of communications; and communicating on resources of the second set punctured to include the data signaling for the first type of communications based at least in part on a control message received on resources of the first set, wherein the second type of communications comprises mobile broadband, MBB, communications and the second set of resources comprises a second set of TTIs each having a second duration that is an integer multiple of the first duration, wherein: the second set of resources comprises a first subset of resources reserved for the MBB communications, which are not available for puncturing to include the data signaling for the first type of communications, and a second subset of resources available for puncturing to include the data signaling for the first type of communications. identifying a first set of resources allocated for control and data signaling for a first type of communications, wherein the first set of resources comprises a first frequency region of a system bandwidth and a first set of transmission time intervals, TTIs, each having a first duration; identifying a second set of resources allocated for control and data signaling for a second type of communications, wherein the second set of resources comprises a second frequency region of the system bandwidth, wherein the first type of communications comprises communications having a first nominal latency constraint that is stricter than a second nominal latency constraint for the second type of communications; and communicating on resources of the second set punctured to include the data signaling for the first type of communications based at least in part on a control message received on resources of the first set, wherein the second type of communications comprises mobile broadband, MBB, communications and the second set of resources comprises a second set of TTIs each having a second duration that is an integer multiple of the first duration, wherein: the second set of resources comprises a first subset of resources reserved for the MBB communications, which are not available for puncturing to include the data signaling for the first type of communications, and a second subset of resources available for puncturing to include the data signaling for the first type of communications.
A method for providing a decoded representation (512; 514: 630b) of an audio signal on the basis of an encoded audio stream (510; 610) representing spectral components of frequency bands of the audio signal and a multi-band noise intensity value , the method comprising: introducing noise into spectral components, namely spectral bin values, of a plurality of frequency bands, to which separate frequency band gain information, namely scale factors, is associated, on the basis of a common multi-band noise intensity value; wherein starting from a noise filling start line every spectral line quantized to zero is replaced with a replacement value, which is an indicated noise value, a magnitude of which is determined by the multi-band noise intensity value, with a random sign, to perform a noise filling in a quantized domain; and wherein the method comprises scaling a replacement value with a scale factor transmitted for an actual scale factor band, to perform an individual scaling of noise introduced into different frequency bands on the basis of the frequency band gain information. introducing noise into spectral components, namely spectral bin values, of a plurality of frequency bands, to which separate frequency band gain information, namely scale factors, is associated, on the basis of a common multi-band noise intensity value; wherein starting from a noise filling start line every spectral line quantized to zero is replaced with a replacement value, which is an indicated noise value, a magnitude of which is determined by the multi-band noise intensity value, with a random sign, to perform a noise filling in a quantized domain; and wherein the method comprises scaling a replacement value with a scale factor transmitted for an actual scale factor band, to perform an individual scaling of noise introduced into different frequency bands on the basis of the frequency band gain information.
A method for operating a reprocessing apparatus for cleaning and/or disinfecting a medical instrument which has at least one channel , wherein a fluid line is provided, which is or will be connected to the at least one channel , wherein, in order to determine the volume flow of a liquid flowing in the fluid line , gas bubbles are or will be admitted into the liquid , wherein the speed (u) of the gas bubbles is determined and the volume flow is extrapolated on the basis of the speed (u) of the gas bubbles , characterized in that the speed (u) of the gas bubbles is determined by way of an image processing of at least two successively captured images of a section of the fluid line , wherein, in order to increase the contrast, light is shone onto the gas bubbles , wherein the light direction is approximately parallel or antiparallel to the flow direction of the liquid .