mhurhangee/ep-ind-claims huggingface dataset:
Method for triggering a function able to be executed by a home gateway, the method comprising: - receipt, by a radiocommunication terminal, of an item of tag information originating from an RFID tag, the item of tag information being used to identify the function to be triggered; the method being characterized in that it furthermore comprises, after said receipt, the following successive steps: - the radiocommunication terminal transmits, via a radiocommunication network, a request to trigger said function to a device for configuring the home gateway; - the configuration device propagates, via an operator network, the trigger request as far as the home gateway; - the home gateway triggers the function. - receipt, by a radiocommunication terminal, of an item of tag information originating from an RFID tag, the item of tag information being used to identify the function to be triggered; - the radiocommunication terminal transmits, via a radiocommunication network, a request to trigger said function to a device for configuring the home gateway; - the configuration device propagates, via an operator network, the trigger request as far as the home gateway; - the home gateway triggers the function.
An endoscopic camera for minimally invasive surgery, comprising a camera having an optical system, the optical system being attached to a transparent film and the film being removable, characterized in that the film comprises a plurality of sections, wherein an upper side of the section attached to an immediately preceding section and a lower side of the section is attached to an immediately succeeding section, wherein the individual sections are folded upon each other in such a manner that they are arranged in a meandering shape.
A method, comprising: transmitting, by a first base station when there is no data transmission by the first base station, a plurality of subframes to wireless devices in a coverage area of the first base station, wherein the plurality of subframes comprises dedicated synchronization and measurement subframes and blank data subframes; transmitting, by the first base station, configuration information for the dedicated synchronization and measurement subframes, wherein the configuration information indicates the configured periodicity according to which the dedicated synchronization and measurement subframes are transmitted; wherein transmitting the plurality of subframes comprises transmitting the dedicated synchronization and measurement subframes periodically according to the configured periodicity; and wherein each of the dedicated synchronization and measurement subframes comprise reference signals spanning the entire subframe or half the subframe. transmitting, by a first base station when there is no data transmission by the first base station, a plurality of subframes to wireless devices in a coverage area of the first base station, wherein the plurality of subframes comprises dedicated synchronization and measurement subframes and blank data subframes; transmitting, by the first base station, configuration information for the dedicated synchronization and measurement subframes, wherein the configuration information indicates the configured periodicity according to which the dedicated synchronization and measurement subframes are transmitted; wherein transmitting the plurality of subframes comprises transmitting the dedicated synchronization and measurement subframes periodically according to the configured periodicity; and wherein each of the dedicated synchronization and measurement subframes comprise reference signals spanning the entire subframe or half the subframe.
Filter plate as part of a filter press comprising two or more filter plates disposed two-dimensionally next to one another, wherein the filter plate carries a filter cloth, wherein the filter cloth is composed of a filter cloth fabric which is folded-over in a surface area such that a first filter cloth area is disposed on a second filter cloth area, wherein the two filter cloth areas are connected with one another at least partially by means of a welding connection, characterised in that the folded-over surface area of the filter cloth forms a bead serving for fixing purposes wherein this bead is held in a groove of the filter plate.
Extracorporeal blood treatment apparatus comprising a treatment unit for carrying out the extracorporeal blood treatment, a device which is intended for controlling the treatment unit and is designed such that the extracorporeal blood treatment is carried out, a device which is intended for controlling the treatment unit and is designed such that automatic processes for preparing for the extracorporeal blood treatment are carried out, and an internal communication unit designed to communicate with an external communication unit via a communication network, characterised in that the internal communication unit and the device for controlling the treatment unit for the preparation for the extracorporeal blood treatment are designed such that the device for controlling the preparation for the extracorporeal blood treatment is started once an initiation code transmitted via a communication network has been received from the external communication unit, and therefore the treatment unit is prepared for carrying out the extracorporeal blood treatment.
A handle apparatus for an endoluminal treatment device, comprising: a handle member; a control member coupled to the handle member; a shaft mounted to the handle member and coupled to the control member by a unidirectional mechanism such that rotation of the shaft is limited to only one direction and rotation of the shaft displaces the control member axially with respect to the handle member. a handle member; a control member coupled to the handle member; a shaft mounted to the handle member and coupled to the control member by a unidirectional mechanism such that rotation of the shaft is limited to only one direction and rotation of the shaft displaces the control member axially with respect to the handle member.
Process for manufacturing a pneumatic tyre, comprising the following steps: a) forming a carcass based on uncured rubber material and then curing the carcass so as to make it elastic; b) overmoulding on the cured carcass at least one material based on thermoplastic elastomer by injecting the material based on thermoplastic elastomer in a mould so as to form exterior sidewalls and a tread on the carcass. a) forming a carcass based on uncured rubber material and then curing the carcass so as to make it elastic; b) overmoulding on the cured carcass at least one material based on thermoplastic elastomer by injecting the material based on thermoplastic elastomer in a mould so as to form exterior sidewalls and a tread on the carcass.
A method of establishing an adjusted calibration curve for a quantitative assay performed using a local instrument that amplifies nucleic acid and monitors amplicon synthesis as amplification is occurring, said method comprising the steps of: (a) obtaining a pair of coordinates for a fixed-point on a calibration curve specific for the quantitative assay, wherein the calibration curve has been prepared by fitting an equation to a collection of results obtained using a plurality of instruments, other than the local instrument, and wherein the pair of coordinates specify an amount of an analyte polynucleotide and a normalized indicia of amplification value; (b) obtaining an adjustment calibrator that comprises a fixed amount of an internal calibrator and a known amount of the analyte polynucleotide; (c) co-amplifying the analyte polynucleotide and the internal calibrator of the adjustment calibrator using the local instrument; (d) determining indicia of amplification for each of the analyte polynucleotide and the internal calibrator that co-amplified in step (c); (e) normalizing the indicia of amplification determined for the analyte polynucleotide to the indicia of amplification determined for the internal calibrator; and (f) establishing the adjusted calibration curve by preparing a calibration plot that comprises a first point and a second point, wherein the first point comprises coordinates for the known amount of the analyte polynucleotide of the adjustment calibrator and the normalized indicia of amplification for the analyte polynucleotide determined in step (e), and wherein the second point comprises the pair of coordinates, obtained in step (a), for the fixed-point. (a) obtaining a pair of coordinates for a fixed-point on a calibration curve specific for the quantitative assay, wherein the calibration curve has been prepared by fitting an equation to a collection of results obtained using a plurality of instruments, other than the local instrument, and wherein the pair of coordinates specify an amount of an analyte polynucleotide and a normalized indicia of amplification value; (b) obtaining an adjustment calibrator that comprises a fixed amount of an internal calibrator and a known amount of the analyte polynucleotide; (c) co-amplifying the analyte polynucleotide and the internal calibrator of the adjustment calibrator using the local instrument; (d) determining indicia of amplification for each of the analyte polynucleotide and the internal calibrator that co-amplified in step (c); (e) normalizing the indicia of amplification determined for the analyte polynucleotide to the indicia of amplification determined for the internal calibrator; and (f) establishing the adjusted calibration curve by preparing a calibration plot that comprises a first point and a second point,
A lighting system, comprising: a housing having a mounting base; a reflector including a base portion and an opposing top portion, the top portion of the reflector being smaller in size than the base portion, the reflector further including a plurality of reflecting surfaces, each reflecting surface having an optical axis, each reflecting surface further including a linearly projected cross-section along a respective linear axis, the linearly projected cross-section of each of the reflecting surfaces comprising a substantially conic shape, the base portion of the reflector being oriented toward the mounting base of the housing and the top portion of the reflector being oriented away from the mounting base of the housing; and a plurality of light emitting diodes (LEDs) positioned proximate the top portion of the reflector in a line generally parallel to the linear axis of an associated reflecting surface, the LEDs being angled downwardly and oriented toward said associated reflecting surface such that a central light-emitting axis of the plurality of LEDs is angled relative to said optical axis of the associated reflecting surface at about 45°, the associated reflecting surface redirecting and collimating a light output of the plurality of LEDs at an angle of about 45° with respect to the central light emitting axis of the plurality of LEDs. a housing having a mounting base; a reflector including a base portion and an opposing top portion, the top portion of the reflector being smaller in size than the base portion, the reflector further including a plurality of reflecting surfaces, each reflecting surface having an optical axis, each reflecting surface further including a linearly projected cross-section along a respective linear axis, the linearly projected cross-section of each of the reflecting surfaces comprising a substantially conic shape, the base portion of the reflector being oriented toward the mounting base of the housing and the top portion of the reflector being oriented away from the mounting base of the housing; and a plurality of light emitting diodes (LEDs) positioned proximate the top portion of the reflector in a line generally parallel to the linear axis of an associated reflecting surface, the LEDs being angled downwardly and oriented toward said associated reflecting surface such that a central light-emitting axis of the plurality of LEDs is angled relative to said optical axis of the associated reflecting surface at about 45°, the associated reflecting surface redirecting and collimating a light output of the plurality of LEDs at an angle of about 45° with respect to the central light emitting axis of the plurality of LEDs.
A method for transmitting a Sounding Reference Signal, SRS, in a Time Division Duplex, TDD, system, the method comprising: receiving an SRS configuration index I SRS from a base station; calculating (1402, 1403) a parameter n SRS based on the SRS configuration index I SRS, wherein a first equation is used for calculating the parameter n SRS in case that an SRS configuration index I SRS corresponds to one of zero to nine, and a second equation is used for calculating the parameter n SRS in case that an SRS configuration index I SRS does not correspond to zero to nine, and the first equation is different from the second equation; determining a frequency-domain starting position of the SRS based on the parameter n SRS; transmitting the SRS at the determined frequency-domain starting position, wherein SRS configuration indices I SRS corresponding to zero to nine indicate a 2ms SRS periodicity, and wherein the first equation is n SRS =n f ∗ L+k, where n f is a system frame number for transmitting the SRS, in case an uplink-downlink configuration corresponds to one of 0, 1, 2, 6, k is 0, 1, 2 and 3 and L is 4, and in case the uplink-downlink configuration corresponds to one of 3, 4, 5, k is 0, 1 and L is 2, and the second equation is n SRS = └( n f × 10 + └ n s /2┘)/ T ┘, where n f is a system frame number for transmitting the SRS, n s is an index of a time slot for transmitting the SRS, T is an SRS periodicity corresponding to an SRS configuration index I SRS, and T is larger or equal to 5 and smaller or equal to 320. receiving an SRS configuration index I SRS from a base station; calculating (1402, 1403) a parameter n SRS based on the SRS configuration index I SRS, wherein a first equation is used for calculating the parameter n SRS in case that an SRS configuration index I SRS corresponds to one of zero to nine, and a second equation is used for calculating the parameter n SRS in case that an SRS configuration index I SRS does not correspond to zero to nine, and the first equation is different from the second equation; determining a frequency-domain starting position of the SRS based on the parameter n SRS; transmitting the SRS at the determined frequency-domain starting position, wherein SRS configuration indices I SRS corresponding to zero to nine indicate a 2ms SRS periodicity, and wherein the first equation is n SRS =n f ∗ L+k, where n f is a system frame number for transmitting the SRS, in case an uplink-downlink configuration corresponds to one of 0, 1, 2, 6, k is 0, 1, 2 and 3 and L is 4, and in case the uplink-downlink configuration corresponds to one of 3, 4, 5, k is 0, 1 and L is 2, and the second equation is n SRS = └( n f × 10 + └ n s /2┘)/ T ┘, where n f is a system frame number for transmitting the SRS, n s is an index of a time slot for transmitting the SRS, T is an SRS periodicity corresponding to an SRS configuration index I SRS, and T is larger or equal to 5 and smaller or equal to 320.
Method for producing a flat product from an iron-based shape memory alloy, in which a melt which comprises at least as principal constituent iron, alloying elements, and unavoidable impurities is cast in a casting means to form a cast strip and in the process is cooled, characterized in that the melt is cast to a strip in a casting means and cooled, the thickness of the strip being greater than 1 mm and less than 30 mm, the casting region of said means being bounded at least on one of its longitudinal sides by a wall which is moving in the casting direction during the casting operation and which is cooled, the melt in contact with the moving wall or casting belt is cooled at a cooling rate of at least 20 K/s, the melt, as well as iron and production-related impurities, comprises manganese at 12 wt% to 45 wt% and silicon at 1 wt% to 12 wt%, and comprises at least one further element from a group 1, the group 1 encompassing the elements N, B, and C and the following statement being valid for the alloying fractions of the group 1 in weight percent: ∑ N, C,10 ⋅ B ≥ 0,005 ⁢ %, and/or at least one further element of a group 2 is present, the group 2 encompassing the elements Ti, Nb, W, V, and Zr and the following statement being valid for the alloying fractions of the group 2 in weight percent: ∑ Ti, Nb, W, V, Zr ≥ 0,01 ⁢ % and it being possible optionally for at least one, or two or more, of the following fractions of alloying constituents to be present: Cu ≤ 20 wt%, Cr ≤ 20 wt%, Al ≤ 20 wt%, Mg ≤ 20 wt%, Ni ≤ 20 wt%, O ≤ 0.5 wt%, Co ≤ 20 wt%, Mo ≤ 20 wt%, Ca ≤ 0.5 wt%, P ≤ 0.5 wt% and/or S ≤ 0.5 wt%. the strip emerging from the casting gap of the casting means, or the optionally cold-rolled strip which has solidified on the casting belt and subsequently been additionally hot-rolled, is heated, lastly, at least to the martensite finish (M f) temperature of the respective alloy. Cu ≤ 20 wt%, Cr ≤ 20 wt%, Al ≤ 20 wt%, Mg ≤ 20 wt%, Ni ≤ 20 wt%, O ≤ 0.5 wt%, Co ≤ 20 wt%, Mo ≤ 20 wt%, Ca ≤ 0.5 wt%, P ≤ 0.5 wt% and/or S ≤ 0.5 wt%.
A method for wireless communication, comprising: receiving a first signal at a user equipment, UE, the UE communicating with a network using first system information, the first signal including an indication of whether system information is to be requested by the UE and an indication of a portion of the first system information that has changed; determining, at the UE, based at least in part on the first signal, to request updated system information; and requesting, at the UE, updated system information based at least in part on the determining. receiving a first signal at a user equipment, UE, the UE communicating with a network using first system information, the first signal including an indication of whether system information is to be requested by the UE and an indication of a portion of the first system information that has changed; determining, at the UE, based at least in part on the first signal, to request updated system information; and requesting, at the UE, updated system information based at least in part on the determining.
A rubber composition containing 5 to 200 parts by mass of a diene copolymer per 100 parts by mass of a rubber component including a diene polymer having a weight-average molecular weight of 100 thousand to 3 million, wherein the diene copolymer has a linear conjugated diene monomer unit and a branched conjugated diene monomer unit, a weight-average molecular weight of 1000 to 3000000 and a hydrogenation rate of not less than 15%, and wherein the mass ratio of the linear conjugated diene monomer unit amount to the branched conjugated diene monomer unit amount in 100% by mass of the diene copolymer (linear conjugated diene monomer unit amount/branched conjugated diene monomer unit amount) is 88/12 to 75/25.
A control system for an electrical switching apparatus adapted to be installed in a medium voltage or high voltage electrical circuit, comprising: - at least a first module comprising first control means which are adapted to execute a first control logic, and a second module comprising second control means which are adapted to execute a second control logic; - at least one communication bus (50, 51); said first control means and said second control means are adapted to be operatively connected to said at least one communication bus (50, 51), and to share values of variables associated to said first control logic and to said second control logic through said at least one communication bus; characterized in that said first control means comprise an electronic processing unit adapted to carry out said first control logic and a further electronic processing unit (16, 63) adapted at least to receive, through said at least one communication bus (50, 51), values shared by the second control means of said second module and being adapted to put values associated to output variables of said first control logic on said at least one communication bus (50, 51) in order to share said values with said second control means; wherein said second control means comprise an electronic processing unit adapted to carry out said second control logic and a further electronic processing unit adapted at least to receive, through said at least one communication bus (50, 51), values shared by the first control means of said first module and being adapted to put values associated to output variables of said second control logic on said at least one communication bus (50, 51) in order to share said values with said first control means. - at least a first module comprising first control means which are adapted to execute a first control logic, and a second module comprising second control means which are adapted to execute a second control logic; - at least one communication bus (50, 51);
A method of executing computer-readable code for interaction with one or more data resources on a data processing platform, wherein the method is performed using one or more processors, comprising: receiving (9.1) a request message including an identifier identifying executable code stored in a data repository; determining (9.2), using the identifier, an execution environment mapped to the executable code by accessing mapping data identifying a mapping between the identifier and one of a plurality of stored execution environments; executing (9.3) the identified executable code using the determined execution environment; and passing (9.4) requests made with the executable code to one or more data resources via a proxy and receiving (9.5), via the proxy, requests to the executable code from the one or more data resources such that the executable code is executed in isolation from the one or more data resources. receiving (9.1) a request message including an identifier identifying executable code stored in a data repository; determining (9.2), using the identifier, an execution environment mapped to the executable code by accessing mapping data identifying a mapping between the identifier and one of a plurality of stored execution environments; executing (9.3) the identified executable code using the determined execution environment; and passing (9.4) requests made with the executable code to one or more data resources via a proxy and receiving (9.5), via the proxy, requests to the executable code from the one or more data resources such that the executable code is executed in isolation from the one or more data resources.