mhurhangee/patent-ind-claim-en huggingface dataset:
Strip applicator for applying a strip to a strip-winding drum for forming a tire component, wherein the strip applicator comprises an applicator member for applying the strip to the strip-winding drum at an application position and a supply section for receiving the strip in an input direction at a supply position and for supplying the strip to the applicator member in an output direction, wherein the applicator member is movable in an offset direction transverse to the output direction to offset the application position relative to the supply position, wherein the supply section comprises an input member at the supply position for receiving the strip in the input direction and an output member for outputting the strip to the applicator member in the output direction, wherein the output member is movable relative to the input member from a start position towards an offset position with at least a vector component in the offset direction, wherein the supply section defines a supply path for the strip, characterized in that the supply path, between the input member and the output member , comprises a transition segment (G) that extends in a start orientation transverse to the output direction and the offset direction when the output member is in the start position (B1) and that is tilted into an offset orientation oblique to the start orientation when the output member is in the offset position (B2), wherein the transition segment (G) is tiltable about a first twist axis parallel to the input direction, wherein the input member and the output member are tiltable as a whole about the first twist axis.
A method of identifying a plurality of organisms in a sample, comprising providing a sample that has been obtained from a subject, providing a plurality of sample wells, each sample well provided with a portion of the sample and primers for amplifying a target nucleic acid sequence from a different one of the plurality of organisms, simultaneously subjecting the plurality of sample wells to amplification conditions through a number of amplification cycles to identify higher titer organisms, detecting whether amplification has occurred in each of a first set of the plurality of sample wells, simultaneously subjecting the plurality of sample wells to amplification conditions through a number of additional amplification cycles to identify lower titer organisms, detecting whether amplification has occurred in each of a second set of the plurality of sample wells, identifying at least one organism present in the sample by identifying at least one corresponding sample well in which amplification has occurred, wherein the first detecting step does not involve detecting whether amplification has occurred in the second set of the plurality of sample wells, and the second detecting step does not involve detecting whether amplification has occurred in the first set of the plurality of sample wells, characterised that the number of amplification cycles performed before the detecting steps is individually tuned to titer of target organism and/or risk of an unexpected false positive.
Rolling bearing cage of a rolling bearing, comprising the following features: - the cage comprises an annular circumferential element from which web elements branch off, between which web elements rolling bodies of the rolling bearing can be arranged, - the circumferential element comprises a multiplicity of identical sector elements , - each of the sector elements has at least one protrusion which can be placed loosely in engagement with at least one corresponding lateral recess in one of the rolling bodies of the rolling bearing, and - the initially loose sector elements and web elements are connected to one another to form the cage, characterized in that the initially loose sector elements are configured, at the connecting points thereof, in such a way that, when two sector elements are brought together, a through-hole is formed at the connecting point, said through-hole being provided for an end of one of the web elements to be inserted therein. - the cage comprises an annular circumferential element from which web elements branch off, between which web elements rolling bodies of the rolling bearing can be arranged, - the circumferential element comprises a multiplicity of identical sector elements , - each of the sector elements has at least one protrusion which can be placed loosely in engagement with at least one corresponding lateral recess in one of the rolling bodies of the rolling bearing, and - the initially loose sector elements and web elements are connected to one another to form the cage, characterized in that the initially loose sector elements are configured, at the connecting points thereof, in such a way that, when two sector elements are brought together, a through-hole is formed at the connecting point, said through-hole being provided for an end of one of the web elements to be inserted therein.
An aeronautical propulsion system defining a central axis and comprising: a fan having a plurality of fan blades rotatable about the central axis and defining a fan pressure ratio, FPR; and an electric motor mechanically coupled to the fan for driving the fan , the electric motor comprising a number of poles , n poles , and defining a maximum power, P; characterised in that the relationship between the fan pressure ratio, FPR, of the fan , the number of poles , n poles , of the electric motor , and the maximum power, P, of the electric motor is defined by an equation: n pole P = C 1 ⋅ e − 9.062 ⋅ FPR + C 2 ⋅ e -1.2604· FPR ; wherein C 1 is a constant having a value between 22,000 and 52,000, wherein C 2 is a constant having a value between 4.0 and 9.8, and wherein e is Euler's number. a fan having a plurality of fan blades rotatable about the central axis and defining a fan pressure ratio, FPR; and an electric motor mechanically coupled to the fan for driving the fan , the electric motor comprising a number of poles , n poles , and defining a maximum power, P; characterised in that the relationship between the fan pressure ratio, FPR, of the fan , the number of poles , n poles , of the electric motor , and the maximum power, P, of the electric motor is defined by an equation: n pole P = C 1 ⋅ e − 9.062 ⋅ FPR + C 2 ⋅ e -1.2604· FPR ; wherein C 1 is a constant having a value between 22,000 and 52,000, wherein C 2 is a constant having a value between 4.0 and 9.8, and wherein e is Euler's number.
A method for the creation of metadata from a set of images, said method comprising: receiving a set of image data; generating a plurality of scale layers with increasing scale, wherein generating a scale layer comprises spatially subsampling said set of image data; generating and storing a multi-scale version of a set of metadata, wherein said generating a multi-scale version of said set of metadata comprises generating a set of metadata for each scale layer of the plurality of scale layers from statistical attributes based on a corresponding scale layer, wherein said multi-scale version of said set of metadata is stored in a pyramidal data structure in which each level of the pyramidal data structure corresponds to a scale layer of the plurality of scale layers. receiving a set of image data; generating a plurality of scale layers with increasing scale, wherein generating a scale layer comprises spatially subsampling said set of image data; generating and storing a multi-scale version of a set of metadata, wherein said generating a multi-scale version of said set of metadata comprises generating a set of metadata for each scale layer of the plurality of scale layers from statistical attributes based on a corresponding scale layer, wherein said multi-scale version of said set of metadata is stored in a pyramidal data structure in which each level of the pyramidal data structure corresponds to a scale layer of the plurality of scale layers.
Breathing aid for enabling a person buried by an avalanche to breathe, comprising a housing which has an inhalation channel comprising a valve arranged in the housing that opens automatically during inhalation and closes automatically during exhalation and an exhalation channel comprising a valve arranged in the housing (20, 20', 20") that closes automatically during inhalation and opens automatically during exhalation, the inhalation channel and the exhalation channel opening into a mouthpiece arranged on the housing (20, 20', 20") and the housing (20, 20', 20") having at least one inhalation opening (30, 31, 30', 31', 30", 31") into which the inhalation channel opens, the housing being designed as a handle which can be grasped by a user with one hand and brought to the mouth, characterized in that the at least one inhalation opening is arranged on the same side of the housing (20, 20', 20"), in particular the underside of the housing (20, 20', 20"), as the mouthpiece (25, 25', 25"), the at least one inhalation opening (30, 31, 30', 31', 30", 31") being exposed.
A method for wireless communication, comprising: receiving , at a user equipment, UE, from a base station, a location indicator transmission having a location indicator that identifies downlink control channel resources that are to be monitored by the UE for downlink control information transmissions; monitoring the downlink control channel resources based at least in part on the received location indicator; receiving downlink control channel information on the downlink control channel resources based at least in part on the monitoring; identifying , based at least in part on the downlink control channel information, downlink shared channel resources that have been allocated for shared channel transmissions to the UE; and receiving the shared channel transmissions via the downlink shared channel resources. receiving , at a user equipment, UE, from a base station, a location indicator transmission having a location indicator that identifies downlink control channel resources that are to be monitored by the UE for downlink control information transmissions; monitoring the downlink control channel resources based at least in part on the received location indicator; receiving downlink control channel information on the downlink control channel resources based at least in part on the monitoring; identifying , based at least in part on the downlink control channel information, downlink shared channel resources that have been allocated for shared channel transmissions to the UE; and receiving the shared channel transmissions via the downlink shared channel resources.
A composition for use in the prevention or treatment of a subject suffering from a HPV-positive cancer in combination with radiotherapy, wherein said composition comprises a conjugate, eventually associated with pharmaceutically acceptable carrier, said conjugate comprising: i) the Shiga Toxin B subunit (STxB), a fragment thereof having a length of at least 50 amino acids, which fragment binds to the glycolipid Gb3 receptor with a K D equal or inferior to 10 -7 M or a derivative thereof corresponding to an amino acid sequence binding to the glycolipid Gb3 receptor with a K D equal or inferior to 10 -7 M and having a percentage of identity of at least 95 % as compared to the amino acid SEQ id n°: 1; and ii) at least one HPV epitope associated with said cancer. i) the Shiga Toxin B subunit (STxB), a fragment thereof having a length of at least 50 amino acids, which fragment binds to the glycolipid Gb3 receptor with a K D equal or inferior to 10 -7 M or a derivative thereof corresponding to an amino acid sequence binding to the glycolipid Gb3 receptor with a K D equal or inferior to 10 -7 M and having a percentage of identity of at least 95 % as compared to the amino acid SEQ id n°: 1; and ii) at least one HPV epitope associated with said cancer.
A plunger , comprising: a support ring comprising a conical cap , an annular shoulder and an annular groove ; and a cover disposed over and coupled to the support ring and comprising a conical cap , a cylindrical sidewall , and a flange received into the annular groove of the support ring , wherein the cylindrical sidewall comprises a first annular rib and a second annular rib ; wherein the conical cap of the support ring and the conical cap of the cover define an air cavity therebetween, wherein the air cavity is defined by an angle θ 3 between the support ring and the cover along the conical portion of the plunger , wherein the air cavity defines a predetermined compliance volume such that when the plunger undergoes injection pressurization, the cover with the conical cap deform and flex into the compliance volume defined by the air cavity , and wherein, due to the deforming and flexing of the cover , the angle θ 3 between the support ring and the cover is smaller when the plunger is under operating pressure than when the plunger is not under pressure and wherein the first and second annular ribs are radially outwardly deflected against an inner wall of a syringe barrel when the angle θ 3 is smaller. a support ring comprising a conical cap , an annular shoulder and an annular groove ; and a cover disposed over and coupled to the support ring and comprising a conical cap , a cylindrical sidewall , and a flange received into the annular groove of the support ring , wherein the cylindrical sidewall comprises a first annular rib and a second annular rib ; wherein the conical cap of the support ring and the conical cap of the cover define an air cavity therebetween, wherein the air cavity is defined by an angle θ 3 between the support ring and the cover along the conical portion of the plunger , wherein the air cavity defines a predetermined compliance volume such that when the plunger undergoes injection pressurization, the cover with the conical cap deform and flex into the compliance volume defined by the air cavity , and wherein, due to the deforming and flexing of the cover , the angle θ 3 between the support ring and the cover is smaller when the plunger is under operating pressure than when the plunger is not under pressure and wherein the first and second annular ribs are radially outwardly deflected against an inner wall of a syringe barrel when the angle θ 3 is smaller.
An asynchronous processor core , i.e., not cadenced by a clock signal, configured for the sequential execution of instructions upon receipt of interrupt control signals, comprising: - a loading unit for a sequential loading of instruction lines from a main memory which is external to the processor core , - a decoder for decoding instruction lines loaded by the loading unit into executable instructions, - functional units for executing the executable instructions, and - an execution control module configured into a two-state automaton : • a sleep state (S1) wherein the asynchronous processor core awaits an interrupt control signal to execute an interrupt routine, and • an execution state (S2) wherein the decoder awaits a new instruction line from an interrupt routine that is being executed to be decoded, characterised in that the execution control module further manages a state variable (status) of the loading unit to selectively authorize or prevent, according to at least the value of this state variable (status), the loading of a new instruction line by the loading unit when the execution control module is in its execution state (S2) and when at least one new instruction line of an interrupt routine that is being executed still remains to be loaded, and in that the execution control module is designed for consulting the value of this state variable (status) before deciding whether or not to send a signal (continue) authorising the loading of a new instruction line to the loading unit , the latter being configured not to request the loading of a new execution routine instruction line until such an authorisation signal (continue) has not been sent by the execution control module . - a loading unit for a sequential loading of instruction lines from a main memory which is external to the processor core , - a decoder for decoding instruction lines loaded by the loading unit into executable instructions, - functional units for executing the executable instructions, and - an execution control module configured into a two-state automaton : • a sleep state (S1) wherein the asynchronous processor core awaits an interrupt control signal to execute an interrupt routine, and • an execution state (S2) wherein the decoder awaits a new instruction line from an interrupt routine that is being executed to be decoded, • a sleep state (S1) wherein the asynchronous processor core awaits an interrupt control signal to execute an interrupt routine, and • an execution state (S2) wherein the decoder awaits a new instruction line from an interrupt routine that is being executed to be decoded,
A remote work support system comprising: a wearable device that is to be worn by a site worker, includes an image capturing unit , a voice input unit , and a voice output unit , a communication unit , connected to a network via a first communication line (T1) for transmitting an image captured by the image capturing unit, and to transmit and receive voice, the wearable device having no image displays; a mobile terminal that is to be carried by the site worker separately from the wearable device and includes an image reception unit , connected to the network via a second communication line (T2), different from the first communication line the image reception unit being configured to receive an image, and a display unit configured to display the received image; and a support operator terminal that is to be used by a support operator who remotely supports the site worker, includes a voice input unit , a voice output unit , and a display unit , the support operator terminal being configured to transmit and receive voice to and from the wearable device and to receive an image from the wearable device via the first communication line, and to transmit an image to the mobile terminal via the second communication line. a wearable device that is to be worn by a site worker, includes an image capturing unit , a voice input unit , and a voice output unit , a communication unit , connected to a network via a first communication line (T1) for transmitting an image captured by the image capturing unit, and to transmit and receive voice, the wearable device having no image displays; a mobile terminal that is to be carried by the site worker separately from the wearable device and includes an image reception unit , connected to the network via a second communication line (T2), different from the first communication line the image reception unit being configured to receive an image, and a display unit configured to display the received image; and a support operator terminal that is to be used by a support operator who remotely supports the site worker, includes a voice input unit , a voice output unit , and a display unit , the support operator terminal being configured to transmit and receive voice to and from the wearable device and to receive an image from the wearable device via the first communication line, and to transmit an image to the mobile terminal via the second communication line.
A phase compensation method for measuring an array antenna, wherein the array antenna comprises a first array unit and a second array unit, and the phase compensation method is characterized in that it comprises: an operation S1 (S101) of exporting measured far-field directivity patterns of the first array unit and the second array unit, to establish a coordinate system, so as to determine a spatial geometrical relationship between the first array unit and the second array unit; an operation S2 (S103) of determining a wave path difference between the first array unit and the second array unit based on the spatial geometrical relationship between the first array unit and the second array unit; and an operation S3 (S105) of performing phase compensation on the second array unit based on the wave path difference. an operation S1 (S101) of exporting measured far-field directivity patterns of the first array unit and the second array unit, to establish a coordinate system, so as to determine a spatial geometrical relationship between the first array unit and the second array unit; an operation S2 (S103) of determining a wave path difference between the first array unit and the second array unit based on the spatial geometrical relationship between the first array unit and the second array unit; and an operation S3 (S105) of performing phase compensation on the second array unit based on the wave path difference.
A solvent borne coating composition comprising: i) from 15 - 40 wt.% of a polyester resin, ii) from 5 - 15 wt.% of a guanamine formaldehyde resin having no polyester groups, iii) from 22 - 72 wt.% solvents with an atmospheric pressure boiling point of 50 - 98 °C and iv) a curing catalyst wherein the wt.% is relative to the total weight of the composition. i) from 15 - 40 wt.% of a polyester resin, ii) from 5 - 15 wt.% of a guanamine formaldehyde resin having no polyester groups, iii) from 22 - 72 wt.% solvents with an atmospheric pressure boiling point of 50 - 98 °C and iv) a curing catalyst
An electronic impedance measurement device (300;400;500;600) comprising: - a branch , called measurement branch, comprising an impedance to be measured (Z m ) of essentially capacitive type and an alternating electrical source (V m ), called measurement source; and - at least one branch , called reference branch, comprising an impedance (Z r ), called reference impedance, of essentially capacitive type (C r ); characterized in that it also comprises: - electronics , called detection electronics, configured to provide an error signal (V s ) dependent on an algebraic sum of a current (I r ) flowing in the at least one reference branch and of a current (I m ) flowing in the measurement branch ; and - at least one means (402;602,604), called adjustment means, carrying out a change of the current (I r ) in the at least one reference branch in a manner inversely proportional to a control variable (k), so as to obtain a direct measurement of the impedance to be measured (Z m ) as a function of the error signal (V s ) and the control variable (k), said measurement source (V m ) being of fixed amplitude with respect to the control variable (k) or independent of said control variable (k). - a branch , called measurement branch, comprising an impedance to be measured (Z m ) of essentially capacitive type and an alternating electrical source (V m ), called measurement source; and - at least one branch , called reference branch, comprising an impedance (Z r ), called reference impedance, of essentially capacitive type (C r ); - electronics , called detection electronics, configured to provide an error signal (V s ) dependent on an algebraic sum of a current (I r ) flowing in the at least one reference branch and of a current (I m ) flowing in the measurement branch ; and - at least one means (402;602,604), called adjustment means, carrying out a change of the current (I r ) in the at least one reference branch in a manner inversely proportional to a control variable (k), so as to obtain a direct measurement of the impedance to be measured (Z m ) as a function of the error signal (V s ) and the control variable (k), said measurement source (V m ) being of fixed amplitude with respect to the control variable (k) or independent of said control variable (k).