mhurhangee/patent-ind-claim-en huggingface dataset:
Method for controlling the deployment of a program to be executed in a fleet of machines (M1-Mn), the method comprising steps of: • measuring an amount of hardware resources available from each machine (M1-Mn); • measuring a quality of service of the program when it is executed by the fleet of machines; • determining a plurality of processes (P1-P5) of the program to be executed simultaneously, based on the measured quality of service and based on a predetermined setpoint quality of service; • estimating , for each process (P1-P5), an amount of hardware resources required to execute the process; • assigning the processes (P1-P5) to machines of the fleet as a function of the amounts of hardware resources measured for each of the different machines and of the estimated required amounts of resources; • commanding the installation of a process assigned to a machine in said machine if the process is not already installed in said machine; • adjusting , in case of the failure of the assigning step, the setpoint quality of service to a degraded value relative to its previous value; • implementing the steps of determining processes to be executed and of assigning processes to machines based on the adjusted setpoint quality of service. • measuring an amount of hardware resources available from each machine (M1-Mn); • measuring a quality of service of the program when it is executed by the fleet of machines; • determining a plurality of processes (P1-P5) of the program to be executed simultaneously, based on the measured quality of service and based on a predetermined setpoint quality of service; • estimating , for each process (P1-P5), an amount of hardware resources required to execute the process; • assigning the processes (P1-P5) to machines of the fleet as a function of the amounts of hardware resources measured for each of the different machines and of the estimated required amounts of resources; • commanding the installation of a process assigned to a machine in said machine if the process is not already installed in said machine; • adjusting , in case of the failure of the assigning step, the setpoint quality of service to a degraded value relative to its previous value; • implementing the steps of determining processes to be executed and of assigning processes to machines based on the adjusted setpoint quality of service.
A separator for extracting magnetic material (71...77) from an airstream of magnetic material and non-magnetic material, comprising a planar chamber with an inlet port , outlet port and a waste port , and a series of magnets in planes parallel to and on both sides of the chamber , the magnets rotating about a common axis thereby drawing magnetic material (71...77) around the chamber and towards the outlet port whilst non-magnetic material remains in the airstream and is discharged by the waste port , characterized in that the magnets on both sides of the chamber are aligned with each other and configured to rotate in unison.
An electrical circuit for measuring a voltage amplitude waveform in a print head of a printer, comprising: an integrated circuit for generating one or more voltage amplitude waveforms; an inkjet drop forming unit comprising a plurality of inkjet chambers, wherein each of the plurality of inkjet chambers comprises a piezoelectric actuator and an ink nozzle; a connecting circuit between the integrated circuit and the inkjet drop forming unit suitable for applying one of the one or more voltage amplitude waveforms generated by the integrated circuit to the piezoelectric actuator in one of the plurality of inkjet chambers, characterised in the electrical circuit further comprises a conductor in physical proximity to the connecting circuit for measuring the shape of one or more generated voltage amplitude waveforms via capacitive crosstalk. an integrated circuit for generating one or more voltage amplitude waveforms; an inkjet drop forming unit comprising a plurality of inkjet chambers, wherein each of the plurality of inkjet chambers comprises a piezoelectric actuator and an ink nozzle; a connecting circuit between the integrated circuit and the inkjet drop forming unit suitable for applying one of the one or more voltage amplitude waveforms generated by the integrated circuit to the piezoelectric actuator in one of the plurality of inkjet chambers, characterised in the electrical circuit further comprises a conductor in physical proximity to the connecting circuit for measuring the shape of one or more generated voltage amplitude waveforms via capacitive crosstalk.
Method for tracking animals, in particular cattle, comprising the following steps: - continuous or intermittent digital image acquisition of a plurality of animals to obtain digital image data, - identifying individual animals using a comparison algorithm to compare the image data with previously obtained image data, - tracking the movement of the identified animals, preferably using a Kalman filter to obtain first movement data, - analysing the first movement data to create a movement profile of each animal, - tracking the movement of individual body parts of the animals using body features detected by one or the feature extraction algorithm and/or detecting and tracking the body position of the animals from the image data, to obtain second movement data, - analysing the second motion data in order to determine the sequence of movements and/or the activity of the animals in order to create a behavioural profile of each animal, characterised in that the comparison algorithm is designed to determine a similarity between an identification vector generated from the image data and a previously generated identification vector, wherein the comparison algorithm is designed in particular to determine the cosine similarity, wherein the previously generated identification vector is adapted to the identification vector generated from the image data by means of exponential smoothing or, if the similarity between the identification vector generated from the image data and the previously generated identification vector is too low, a new identification vector is stored. - continuous or intermittent digital image acquisition of a plurality of animals to obtain digital image data, - identifying individual animals using a comparison algorithm to compare the image data with previously obtained image data, - tracking the movement of the identified animals, preferably using a Kalman filter to obtain first movement data, - analysing the first movement data to create a movement profile of each animal, - tracking the movement of individual body parts of the animals using body features detected by one or the feature extraction algorithm and/or detecting and tracking the body position of the animals from the image data, to obtain second movement data, - analysing the second motion data in order to determine the sequence of movements and/or the activity of the animals in order to create a behavioural profile of each animal, characterised in that the comparison algorithm is designed to determine a similarity between an identification vector generated from the image data and a previously generated identification vector, wherein the comparison algorithm is designed in particular to determine the cosine similarity, wherein the previously generated identification vector is adapted to the identification vector generated from the image data by means of exponential smoothing or, if the similarity between the identification vector generated from the image data and the previously generated identification vector is too low, a new identification vector is stored.
An Ag-In transient liquid phase (TLP) method of bonding a semiconductor device and a heat-spreading mount, comprising: forming a first bonding structure at a bottom side of the semiconductor device, including: forming a first Ag TLP bonding layer on a bottom of the semiconductor device; forming a second bonding structure at a top side of the heat-spreading mount, characterized in that the method further includes: forming a multi-layer structure having a second Ag TLP bonding layer on a top of the heat-spreading mount, an intermediate transient AgIn 2 IMC (intermetallics compound) layer on a top of the Ag TLP bonding layer, an In TLP bonding layer on a top of the intermediate transient AgIn 2 IMC layer, and an anti-oxidation AgIn 2 IMC capping layer on a top of the In TLP bonding layer; performing an Ag-In bonding process on the first bonding structure and the second bonding structure, thereby converting the first bonding structure and the second bonding structure into a bonding joint including a sandwich bonding structure having a first Ag-In solid solution layer in contact with the semiconductor device, a second Ag-In solid solution layer in contact with the heat-spreading mount, and an Ag 2 In IMC layer sandwiched by the first Ag-In solid solution layer and the second Ag-In solid solution layer, such that the bonding joint joins the semiconductor device and the heat-spreading mount, and a thickness of the Ag 2 In IMC layer is larger than a thickness of the first Ag-In solid solution layer and larger than a thickness of the second Ag-In solid solution layer. forming a first bonding structure at a bottom side of the semiconductor device, including: forming a first Ag TLP bonding layer on a bottom of the semiconductor device; forming a second bonding structure at a top side of the heat-spreading mount, characterized in that the method further includes: forming a multi-layer structure having a second Ag TLP bonding layer on a top of the heat-spreading mount, an intermediate transient AgIn 2 IMC (intermetallics compound) layer on a top of the Ag TLP bonding layer, an In TLP bonding layer on a top of the intermediate transient AgIn 2 IMC layer, and an anti-oxidation AgIn 2 IMC capping layer on a top of the In TLP bonding layer; performing an Ag-In bonding process on the first bonding structure and the second bonding structure, thereby converting the first bonding structure and the second bonding structure into a bonding joint including a sandwich bonding structure having a first Ag-In solid solution layer in contact with the semiconductor device, a second Ag-In solid solution layer in contact with the heat-spreading mount, and an Ag 2 In IMC layer sandwiched by the first Ag-In solid solution layer and the second Ag-In solid solution layer, such that the bonding joint joins the semiconductor device and the heat-spreading mount, and a thickness of the Ag 2 In IMC layer is larger than a thickness of the first Ag-In solid solution layer and larger than a thickness of the second Ag-In solid solution layer.
An apparatus, comprising an open network video interface forum, ONVIF thrift server , comprising: an ONVIF communications subsystem; a network communication subsystem; an ONVIF registrar to discover an ONVIF device through the ONVIF communications subsystem; and a thrift server application programming interface, API to communicate with an ONVIF- OIC, open interconnect consortium server through the network communication subsystem. an ONVIF communications subsystem; a network communication subsystem; an ONVIF registrar to discover an ONVIF device through the ONVIF communications subsystem; and a thrift server application programming interface, API to communicate with an ONVIF- OIC, open interconnect consortium server through the network communication subsystem.
A method for inspecting an object , comprising: a. directing illumination light, the illumination light defining a light beam opening angle, from a configurable area light source onto a beam splitter via an illumination lens along an illumination beam path onto a surface of an object ; b. directing reflected light from the surface of the object along an imaging beam path ; c. imaging the reflected light from the surface of the object with an imaging lens onto an image plane of a camera ; d. changing the diameter of the illumination light and thereby changing the opening angle of the light beam; e. repeating the steps a - d; and generating a field of view on the surface of the object in real time images with different beam opening angles and collimation angles, respectively, wherein the configurable area light source is a 2-dimensional arrangement of a plurality of light emitting elements ; wherein the plurality of light emitting elements includes a plurality of light emitting diodes; wherein the 2-dimensional arrangement of the plurality of light emitting elements is defined by an arrangement of the plurality of light emitting elements in a plurality of concentric geometrical shapes ; wherein a control and drive device is assigned to the configurable area light source so that the plurality of concentric and addressable geometrical shapes are generated in order to obtain different beam diameters, wherein the plurality of concentric geometrical shapes include a plurality of concentric hexagons . a. directing illumination light, the illumination light defining a light beam opening angle, from a configurable area light source onto a beam splitter via an illumination lens along an illumination beam path onto a surface of an object ; b. directing reflected light from the surface of the object along an imaging beam path ; c. imaging the reflected light from the surface of the object with an imaging lens onto an image plane of a camera ; d. changing the diameter of the illumination light and thereby changing the opening angle of the light beam; e. repeating the steps a - d; and
An antenna comprising: a substrate ; and a conductor pattern on the substrate, wherein the conductor pattern comprises first and second conductor areas , wherein the first conductor area is generally at a first end of the substrate and the second conductor area is generally at an opposing second end of the substrate, wherein a first direction extends between the first and second ends of the substrate; wherein the first conductor area has two arms , the two first conductor area arms extend parallel to the first direction and define a first slot between them; wherein the second conductor area has two arms with a second slot defined between them, and the two second conductor area arms extend parallel to the first direction, wherein the two second conductor area arms sit within the first slot with a portion of the first slot at the outer sides of the two second conductor area arms, wherein the second conductor area has a main body extending parallel to the first direction but opposite to the two second conductor arms; a first feeding port which bridges an end of one of the two second conductor area arms and a base of the first slot; a second feeding port which bridges an end of the other of the two second conductor area arms and the base of the first slot; and a third feeding port for the second conductor area, wherein the third feeding port is adjacent to the second end of the substrate. a substrate ; and a conductor pattern on the substrate, wherein the conductor pattern comprises first and second conductor areas , wherein the first conductor area is generally at a first end of the substrate and the second conductor area is generally at an opposing second end of the substrate, wherein a first direction extends between the first and second ends of the substrate; wherein the first conductor area has two arms , the two first conductor area arms extend parallel to the first direction and define a first slot between them; wherein the second conductor area has two arms with a second slot defined between them, and the two second conductor area arms extend parallel to the first direction, wherein the two second conductor area arms sit within the first slot with a portion of the first slot at the outer sides of the two second conductor area arms, wherein the second conductor area has a main body extending parallel to the first direction but opposite to the two second conductor arms; a first feeding port which bridges an end of one of the two second conductor area arms and a base of the first slot; a second feeding port which bridges an end of the other of the two second conductor area arms and the base of the first slot; and a third feeding port for the second conductor area, wherein the third feeding port is adjacent to the second end of the substrate.
A hot-stamping foil which is transferred to a transfer target by applying a transfer thermal pressure, comprising: a carrier that is a base film or a coated base film; and a laminated optical decoration , wherein the laminated optical decoration has a laminated optical structure formed on the carrier , a sinking control layer which contains a soft resin and a deformation limiting agent and is formed on the laminated optical structure , and an adhesive layer which is formed on the sinking control layer , wherein the adhesive layer contains a resin component which contains a thermoplastic resin having a glass transition temperature lower than room temperature and defines a thickness of the adhesive layer , and spacer particles which have a particle size larger than the thickness of the adhesive layer and a portion of which protrude from the resin component, wherein the spacer particles sink into the sinking control layer after transfer thermal pressing, and wherein a thickness of the adhesive layer is in a range of 2 μm or more and 10 μm or less. a carrier that is a base film or a coated base film; and a laminated optical decoration , wherein the laminated optical decoration has a laminated optical structure formed on the carrier , a sinking control layer which contains a soft resin and a deformation limiting agent and is formed on the laminated optical structure , and an adhesive layer which is formed on the sinking control layer , a laminated optical structure formed on the carrier , a sinking control layer which contains a soft resin and a deformation limiting agent and is formed on the laminated optical structure , and an adhesive layer which is formed on the sinking control layer , wherein the adhesive layer contains a resin component which contains a thermoplastic resin having a glass transition temperature lower than room temperature and defines a thickness of the adhesive layer , and spacer particles which have a particle size larger than the thickness of the adhesive layer and a portion of which protrude from the resin component, a resin component which contains a thermoplastic resin having a glass transition temperature lower than room temperature and defines a thickness of the adhesive layer , and spacer particles which have a particle size larger than the thickness of the adhesive layer and a portion of which protrude from the resin component, wherein the spacer particles sink into the sinking control layer after transfer thermal pressing, and wherein a thickness of the adhesive layer is in a range of 2 μm or more and 10 μm or less.
A transmission method comprising transmission steps executed by a first base station and a second base station , comprising: transmitting a first transmit signal from a first antenna in the first base station , the first antenna having a first polarization; and transmitting a second transmit signal from a second antenna in the first base station , the second antenna having a second polarization that is different from the first polarization; transmitting the first transmit signal from a third antenna in the second base station , the third antenna having the second polarization; and transmitting the second transmit signal from a fourth antenna in the second base station (12301 B), the fourth antenna having the first polarization; the transmission method further comprising: a regular phase change process has been performed on data symbols to generate the second transmit signal; a first phase changing process has been performed on all symbols in a frame of the first transmit signal to be transmitted from the third antenna; and a second phase changing process has been performed on all symbols in a frame of the second transmit signal to be transmitted from the fourth antenna. transmitting a first transmit signal from a first antenna in the first base station , the first antenna having a first polarization; and transmitting a second transmit signal from a second antenna in the first base station , the second antenna having a second polarization that is different from the first polarization; transmitting the first transmit signal from a third antenna in the second base station , the third antenna having the second polarization; and transmitting the second transmit signal from a fourth antenna in the second base station (12301 B), the fourth antenna having the first polarization; the transmission method further comprising: a regular phase change process has been performed on data symbols to generate the second transmit signal; a first phase changing process has been performed on all symbols in a frame of the first transmit signal to be transmitted from the third antenna; and a second phase changing process has been performed on all symbols in a frame of the second transmit signal to be transmitted from the fourth antenna. a regular phase change process has been performed on data symbols to generate the second transmit signal; a first phase changing process has been performed on all symbols in a frame of the first transmit signal to be transmitted from the third antenna; and a second phase changing process has been performed on all symbols in a frame of the second transmit signal to be transmitted from the fourth antenna.
A pipeline system provided in a marine vessel that discharges vent gas vaporized from liquefied gas fuel from a vent post , the pipeline system comprising: a drum having an interior surrounded by a wall ; a fuel pipeline for guiding the liquefied gas fuel tc the interior of the drum; a fuel pipeline valve opening and closing the fuel pipeline ; a heating means for heating the liquefied gas fuel guided to the interior of the drum to thereby generate the vent gas; a gas pipeline for guiding the vent gas present in the interior of the drum to the vent post ; and a gas pipeline valve opening and closing the gas pipeline . a drum having an interior surrounded by a wall ; a fuel pipeline for guiding the liquefied gas fuel tc the interior of the drum; a fuel pipeline valve opening and closing the fuel pipeline ; a heating means for heating the liquefied gas fuel guided to the interior of the drum to thereby generate the vent gas; a gas pipeline for guiding the vent gas present in the interior of the drum to the vent post ; and a gas pipeline valve opening and closing the gas pipeline .