mhurhangee/ep-ind-claims huggingface dataset:
A method for converting an initial digital image into a converted digital image, the initial digital image consisting of a set of pixels, the pixels being associated respectively with colours, the initial digital image being acquired by an acquisition device (ACQUI), the initial digital image being stored in an area of a memory, the converted digital image being usable by a neural network, the method comprising the following steps: - resizing (REDI) the initial digital image to obtain an intermediate digital image, the resizing (REDI) being carried out by reducing a number of pixels of the initial image, the values of the pixels of the intermediate digital image being written in place of the values of the pixels of the initial digital image; - modifying (MODIF) a format of the pixels of the intermediate digital image to obtain the converted digital image, the modification (MODIF) being carried out by increasing a number of bits used to represent the colour of the pixel, the values of the pixels of the converted digital image being written in place of values of the pixels of the initial digital image or in place of values of the pixels of the intermediate digital image; the resizing (REDI) being carried out prior to the modification (MODIF), the resizing step (REDI) being carried out by travelling the memory area in a first direction, the modification step (MODIF) being carried out by travelling the memory area in a second direction, the first direction being opposite to the second direction. - resizing (REDI) the initial digital image to obtain an intermediate digital image, the resizing (REDI) being carried out by reducing a number of pixels of the initial image, the values of the pixels of the intermediate digital image being written in place of the values of the pixels of the initial digital image; - modifying (MODIF) a format of the pixels of the intermediate digital image to obtain the converted digital image, the modification (MODIF) being carried out by increasing a number of bits used to represent the colour of the pixel, the values of the pixels of the converted digital image being written in place of values of the pixels of the initial digital image or in place of values of the pixels of the intermediate digital image;
A method for changing a member in a distributed system, comprising: requesting, by a first target node, a node address set from a management server, wherein the node address set comprises: addresses of all nodes (11, 12, 13, 14, 15) in the distributed system, and a master node and a plurality of slave nodes (12, 13, 14, 15) in the distributed system; when an address of the first target node is not in the node address set, sending, by the first target node, a join request to the master node in the distributed system, wherein the join request comprises the address of the first target node; and after receiving the join request, adding the address of the first target node in a member addition instruction to a local member list of the master node, and indicating, by the master node, each slave node (12; 13; 14; 15) in the distributed system to add the address of the first target node to a local member list of the slave node (12; 13; 14; 15), wherein the local member lists include the addresses of all the nodes (11, 12, 13, 14, 15) in the distributed system. requesting, by a first target node, a node address set from a management server, wherein the node address set comprises: addresses of all nodes (11, 12, 13, 14, 15) in the distributed system, and a master node and a plurality of slave nodes (12, 13, 14, 15) in the distributed system; when an address of the first target node is not in the node address set, sending, by the first target node, a join request to the master node in the distributed system, wherein the join request comprises the address of the first target node; and after receiving the join request, adding the address of the first target node in a member addition instruction to a local member list of the master node, and indicating, by the master node, each slave node (12; 13; 14; 15) in the distributed system to add the address of the first target node to a local member list of the slave node (12; 13; 14; 15), wherein the local member lists include the addresses of all the nodes (11, 12, 13, 14, 15) in the distributed system.
An antibody or fragment thereof that binds to human, murine, rat and cynomolgous TL1A comprising a heavy chain CDR1 comprising the amino acid sequence of SEQ ID NO: 51, a heavy chain CDR2 comprising the amino acid sequence of SEQ ID NO: 52, and a heavy chain CDR3 comprising the amino acid sequence of SEQ ID NO: 53; and comprises a light chain CDR1 comprising the amino acid sequence of SEQ ID NO: 54, a light chain CDR2 comprising the amino acid sequence of SEQ ID NO: 55, and a light chain CDR3 comprising the amino acid sequence of SEQ ID NO: 56.
A method for estimating the volumetric efficiency ( vol courant) of a heat engine of a motor vehicle as a function of the air temperature of an intake manifold at the inlet of the engine and of the cooling fluid temperature (Teau) of the engine, the method having the following steps: - characterizing of a volumetric efficiency () for each of the nine pairs obtained from the cross-matching of the maximum, nominal and minimum intake manifold air temperatures (T22 max, T22 nominale, T22 min) and of cooling fluid (Teau max, Teau nominale, Teau min), these volumetric efficiencies () being determined according to a specific mapping as a function of the engine speed and torque, - measuring or estimating a temperature designated actual respectively for the intake manifold air (T22 Reelle) and the cooling fluid (Teau Reelle), - as a function of these two actual temperatures (T22 Reelle, Teau Reelle) compared respectively to the maximum, nominal and minimum intake manifold air temperatures (T22 max, T22 nominale, T22 min) and of cooling fluid (Teau max, Teau nominale, Teau min), extraction of four temperature pairs corresponding respectively to a reference volumetric efficiency ( 1 to 4), - interpolation of a current volumetric efficiency ( vol courant) from a weighted average as a function of the four reference volumetric efficiencies ( 1 to 4) or of intermediate efficiencies ( 12, 13, 24, 34) calculated as a function of the reference efficiencies ( 1 to 4). - characterizing of a volumetric efficiency () for each of the nine pairs obtained from the cross-matching of the maximum, nominal and minimum intake manifold air temperatures (T22 max, T22 nominale, T22 min) and of cooling fluid (Teau max, Teau nominale, Teau min), these volumetric efficiencies () being determined according to a specific mapping as a function of the engine speed and torque, - measuring or estimating a temperature designated actual respectively for the intake manifold air (T22 Reelle) and the cooling fluid (Teau Reelle), - as a function of these two actual temperatures (T22 Reelle, Teau Reelle) compared respectively to the maximum, nominal and minimum intake manifold air temperatures (T22 max, T22 nominale, T22 min) and of cooling fluid (Teau max, Teau nominale, Teau min), extraction of four temperature pairs corresponding respectively to a reference volumetric efficiency ( 1 to 4), - interpolation of a current volumetric efficiency ( vol courant) from a weighted average as a function of the four reference volumetric efficiencies ( 1 to 4) or of intermediate efficiencies ( 12, 13, 24, 34) calculated as a function of the reference efficiencies ( 1 to 4).
A subsea pumping apparatus configured to be in fluid communication with a hydraulically actuated device of a blowout preventer, the subsea pumping apparatus comprising: two or more subsea pumps, each having an inlet and an outlet; one or more motors, each configured to actuate at least one of the two or more pumps to communicate a hydraulic fluid from the inlet to the outlet; and two or more valves, each in fluid communication with the outlet of a respective one of the two or more pumps and configured to selectively route, when the valve is in a first position, hydraulic fluid from the outlet to a location selected from the group consisting of a subsea environment, a reservoir, and the inlet of the pump and configured to selectively route, when the valve is in a second position, hydraulic fluid from the outlet to the hydraulically actuated device, and not the location, wherein at least one of the two or more valves is movable from the first position to the second position while at least one other of the two or more valves is in the first position. two or more subsea pumps, each having an inlet and an outlet; one or more motors, each configured to actuate at least one of the two or more pumps to communicate a hydraulic fluid from the inlet to the outlet; and two or more valves, each in fluid communication with the outlet of a respective one of the two or more pumps and configured to selectively route, when the valve is in a first position, hydraulic fluid from the outlet to a location selected from the group consisting of a subsea environment, a reservoir, and the inlet of the pump and configured to selectively route, when the valve is in a second position, hydraulic fluid from the outlet to the hydraulically actuated device, and not the location, wherein at least one of the two or more valves is movable from the first position to the second position while at least one other of the two or more valves is in the first position.
An electrostatic adsorption body (c, c') adsorbing an object to be adsorbed (d) with an electrostatic adsorption force, the electrostatic adsorption body (c, c') being characterized by comprising: a laminate sheet in which an insulator (b') with a thickness of 20 to 200 μm, an electrode layer with a thickness of 1 to 20 μm, and a resin film (b) with a thickness of 20 to 200 μm are sequentially laminated; and a power supply device that applies a voltage to the electrode layer, wherein the resin film (b) at least has a tensile modulus of 1 MPa or more and less than 100 MPa and a volume resistivity of 1×10 10 to 10 13 Ω·cm, the electrode layer is composed of a bipolar electrode including a positive electrode (a) and a negative electrode (a), and an object to be adsorbed (d) is adsorbed using the resin film (b) as an adsorption surface due to an electrostatic adsorption force that is generated by applying a voltage to the electrode layer, wherein the electrode layer composed of the bipolar electrode is a pair of comb-like electrodes and is formed by meshing comb teeth of the pair of comb-like electrodes on a same plane while maintaining a certain interval therebetween, a width of each of the comb teeth is 0.5 to 20 mm, and the interval between the comb teeth is 0.5 to 10 mm.
Dorsal forearm plate having a three-dimensional concave shape adapted to the shape of the dorsal forearm such that the dorsal forearm may rest on the forearm plate, the dorsal forearm plate has an essentially rectangular extension having opposing long sides and opposing short sides and has a substantially rigid body adapted to underlie the posterior of the patient's hand, wrist and forearm, the plate is provided with two attachment bands, a distal and a proximal attachment band, adapted to attach the plate at the dorsal forearm of a patient; wherein the shape of the side of the plate adapted to face the forearm during use, is adapted to the anatomy of the forearm in that it comprises two elongated depressions running in the longitudinal direction of the plate such that, during use of the plate, the ulnar bone and radius bone of the patient rest in the respective depression and that an elongated ridge, formed between the depressions, is adapted to extend into the softer tissue between the bones in order to orient and stabilize the forearm when attached to the plate; characterized in that said substantially rigid body is unitary, and the surface not intended to face the forearm is provided with a texture such that the friction is high and that said high friction surface extends at least along the mid third part of the plate.
A sound field reproduction device comprising an emphasis unit adapted to emphasize main sound source components of a first sound pickup signal obtained by picking up a sound using a first microphone array positioned ahead of a main sound source, on the basis of a feature amount extracted from a signal obtained by picking up a sound from the main sound source using a sound pickup unit, and a reduction unit adapted to reduce the main sound source components of a second sound pickup signal obtained by picking up a sound using a second microphone array positioned ahead of an auxiliary sound source, on the basis of the feature amount; wherein the emphasis unit is adapted to separate the first sound pickup signal into the main sound source component and an auxiliary sound source component on the basis of the feature amount and to emphasize the separated main sound source components; and wherein the reduction unit is adapted to separate the second sound pickup signal into the main sound source component and the auxiliary sound source component on the basis of the feature amount and to emphasize the separated auxiliary sound source components to reduce the main sound source components of the second sound pickup signal.
A surge protection circuit for a circuit comprising a rectification module and a power factor correction module, wherein outputs of the rectification module are connected as inputs to the power factor correction module, the surge protection circuit comprising: a first diode; a second diode; a capacitor (424; 524; 624); and discharge means; wherein a first terminal of the first diode is connectable to a first input of the rectification module, a first terminal of the second diode is connectable to a second input of the rectification module, second terminals of the first and second diodes (420, 422) are both connected to the first plate of the capacitor (424; 524; 624), and the second plate of the capacitor (424; 524; 624) is connectable to one of the outputs of the rectification module; and wherein: the capacitor (424; 524; 624) is configured such that it is consistently charged to substantially the peak value of a supply voltage during normal operation between surge events; and the discharge means is connected to the capacitor (524; 624; 724) and is configured to discharge the capacitor (424; 524; 624) to the output of the power factor correction module when the voltage across the capacitor (424; 524; 624) is in excess of the peak value of the maximum supply voltage and not substantially discharge the capacitor when the voltage across the capacitor is not in excess of the peak value of the maximum supply voltage. a first diode; a second diode; a capacitor (424; 524; 624); and discharge means; wherein the capacitor (424; 524; 624) is configured such that it is consistently charged to substantially the peak value of a supply voltage during normal operation between surge events; and the discharge means is connected to the capacitor (524; 624; 724) and is configured to discharge the capacitor (424; 524; 624) to the output of the power factor correction module when the voltage across the capacitor (424; 524; 624) is in excess of the peak value of the maximum supply voltage and not substantially discharge the capacitor when the voltage across the capacitor is not in excess of the peak value of the maximum supply voltage.
A vehicle headlamp comprising: a cylindrical pyramid reflector having a front opening larger than a rear opening; a light emitting element mounted on the rear opening of the reflector; and a projector lens arranged to face the front opening of the reflector, wherein the reflector includes an upper reflective surface, a lower reflective surface, a right reflective surface, and a left reflective surface, and wherein an emitting angle of a light emitted from the front opening is set greater in a lateral direction than in a vertical direction, characterized in that each of the upper reflective surface, lower reflective surface, right reflective surface, and left reflective surface has an axial cross-section in a shape of a parabola with a focal point (Fd, Fu, Fr, Fl) on the light emitting element, and in that a notch is formed on the upper reflective surface of the reflector and extends rearward from a front end edge of the upper reflective surface. a cylindrical pyramid reflector having a front opening larger than a rear opening; a light emitting element mounted on the rear opening of the reflector; and a projector lens arranged to face the front opening of the reflector, wherein the reflector includes an upper reflective surface, a lower reflective surface, a right reflective surface, and a left reflective surface, and wherein an emitting angle of a light emitted from the front opening is set greater in a lateral direction than in a vertical direction, characterized in that each of the upper reflective surface, lower reflective surface, right reflective surface, and left reflective surface has an axial cross-section in a shape of a parabola with a focal point (Fd, Fu, Fr, Fl) on the light emitting element, and in that a notch is formed on the upper reflective surface of the reflector and extends rearward from a front end edge of the upper reflective surface.
A power adapter, comprising a power conversion unit and a charging interface, the power conversion unit being configured to form a charging loop with a terminal via the charging interface for charging a battery of the terminal, wherein, the power adapter further comprises a communication unit and an adjustment unit, the communication unit is configured to receive a battery parameter sent by the terminal, the battery parameter being used for indicating a current electric quantity or a current voltage value of the battery of the terminal; and the adjustment unit is configured to determine a target current value corresponding to the current voltage value or the current electric quantity of the battery, and to adjust an output current value of the power adapter to the target current value; characterized in that, the communication unit is configured to perform following operations so as to receive the battery parameter sent by the terminal: sending a charging parameter obtaining request message to the terminal; and receiving a charging parameter obtaining response message sent by the terminal, wherein the charging parameter obtaining response message comprises the battery parameter. sending a charging parameter obtaining request message to the terminal; and receiving a charging parameter obtaining response message sent by the terminal, wherein the charging parameter obtaining response message comprises the battery parameter.
Anchoring and bearing system, comprising a first construction element and a second construction element, which is connectable to the first construction element, and at least one force transmission element and an accommodation for the at least one force transmission element, whereby the accommodation is designed as a groove on a first connection face of the first construction element, and the at least one force transmission element is provided protruding on a second connection face of the second construction element, whereby the at least one force transmission element is insertable at least partially into the groove and is able to be received in a displaceabe way along the groove in the longitudinal direction of the first connection face, characterized in that, as a means for force transmission, at least one reinforcing element is arranged in the region of the first construction element in which the at least one force transmission element is held in an end position in the groove. a first construction element and a second construction element, which is connectable to the first construction element, and at least one force transmission element and an accommodation for the at least one force transmission element, whereby the accommodation is designed as a groove on a first connection face of the first construction element, and the at least one force transmission element is provided protruding on a second connection face of the second construction element, whereby the at least one force transmission element is insertable at least partially into the groove and is able to be received in a displaceabe way along the groove in the longitudinal direction of the first connection face, characterized in that, as a means for force transmission, at least one reinforcing element is arranged in the region of the first construction element in which the at least one force transmission element is held in an end position in the groove.
A method for an access point, AP, controlling channel access of a station, STA, in a wireless communication system, the method comprising: transmitting, to the STA, a first frame containing a restricted access window, RAW, parameter set element for indicating a RAW during which the STA is allowed to perform channel access; and receiving, from the STA, a second frame within the RAW, wherein the RAW is divided into one or more slots, wherein the RAW parameter set, RPS, element comprises at least one RAW assignment field, wherein each of the at least one RAW assignment field comprises information on an STA group allowed to access the RAW, information on a RAW start time, information on a cross slot boundary and information on a RAW slot duration, and wherein the information on cross slot boundary indicates whether or not crossing a slot boundary is allowed for transmission of the STA. transmitting, to the STA, a first frame containing a restricted access window, RAW, parameter set element for indicating a RAW during which the STA is allowed to perform channel access; and receiving, from the STA, a second frame within the RAW, wherein the RAW is divided into one or more slots, wherein the RAW parameter set, RPS, element comprises at least one RAW assignment field, wherein each of the at least one RAW assignment field comprises information on an STA group allowed to access the RAW, information on a RAW start time, information on a cross slot boundary and information on a RAW slot duration, and wherein the information on cross slot boundary indicates whether or not crossing a slot boundary is allowed for transmission of the STA.
A microelectronic package that includes: a package substrate; a die coupled with the package substrate at a first face of the die; a plurality of solder thermal interface material, STIM, thermal interconnects coupled with the die at a second face of the die that is opposite the first face; an integrated heat spreader, IHS, coupled with the plurality of STIM thermal interconnects; a thermal underfill material positioned between the IHS and the die, wherein the thermal underfill material at least partially surrounds the plurality of STIM thermal interconnects, characterized in that a solder resist layer coupled to the second face of the die and adjacent to, and at least partially surrounding, a STIM thermal interconnect of the plurality of STIM thermal interconnects. a package substrate; a die coupled with the package substrate at a first face of the die; a plurality of solder thermal interface material, STIM, thermal interconnects coupled with the die at a second face of the die that is opposite the first face; an integrated heat spreader, IHS, coupled with the plurality of STIM thermal interconnects; a thermal underfill material positioned between the IHS and the die, wherein the thermal underfill material at least partially surrounds the plurality of STIM thermal interconnects, characterized in that a solder resist layer coupled to the second face of the die and adjacent to, and at least partially surrounding, a STIM thermal interconnect of the plurality of STIM thermal interconnects.