mhurhangee/ep-ind-claims huggingface dataset:
A method of performing an optic probe test, comprising: positioning a reconfigurable optic probe at a target probe location within a cell of a device under test, the cell including a target net to be measured and a plurality of non-target nets; applying a test pattern to the cell with the reconfigurable optic probe at the target probe location and obtaining a laser probe waveform in response; and extracting a target net waveform from the LP waveform, characterised by: (i) configuring the reconfigurable optic probe to produce a ring-shaped beam having a relatively low-intensity region central to the ring-shaped beam; (ii) re-applying the test pattern to the cell at the target probe location with the relatively low-intensity region applied to the target net and obtaining a cross-talk LP waveform in response; (iii) normalizing the cross-talk LP waveform; and (iv) determining a target net waveform by subtracting the normalized cross-talk LP waveform from the LP waveform. positioning a reconfigurable optic probe at a target probe location within a cell of a device under test, the cell including a target net to be measured and a plurality of non-target nets; applying a test pattern to the cell with the reconfigurable optic probe at the target probe location and obtaining a laser probe waveform in response; and extracting a target net waveform from the LP waveform, characterised by: (i) configuring the reconfigurable optic probe to produce a ring-shaped beam having a relatively low-intensity region central to the ring-shaped beam; (ii) re-applying the test pattern to the cell at the target probe location with the relatively low-intensity region applied to the target net and obtaining a cross-talk LP waveform in response; (iii) normalizing the cross-talk LP waveform; and (iv) determining a target net waveform by subtracting the normalized cross-talk LP waveform from the LP waveform. (i) configuring the reconfigurable optic probe to produce a ring-shaped beam having a relatively low-intensity region central to the ring-shaped beam; (ii) re-applying the test pattern to the cell at the target probe location with the relatively low-intensity region applied to the target net and obtaining a cross-talk LP waveform in response; (iii) normalizing the cross-talk LP waveform; and (iv) determining a target net waveform by subtracting the normalized cross-talk LP waveform from the LP waveform.
System made up of a transporting apparatus and of separate elongate workpieces which are to be transferred transversely to the longitudinal direction of the transporting apparatus and have a diameter from a predetermined diameter range, having a driven, endless toothed belt which runs via at least two deflecting locations and has concave holders (7, 7') for a respective workpiece on its outer side, which accommodates the workpieces, and having a feed location, at which a respective workpiece is introduced into a holder, wherein each workpiece fitted in a holder (7, 7') has a region of its lateral surface projecting radially beyond the holder (7, 7'), characterized in that spaced apart from the toothed belt is a guide rail which runs between the deflecting locations, is curved in the direction of the holders (7, 7') in the toothed belt and on which the workpieces contained in the holders (7, 7') each butt with sliding action along their region which projects radially beyond the holder, wherein the toothed belt, which circulates at a deflecting location with the holders between the shaped teeth widening in the process, is assigned to the feed location such that a respective workpiece is pushed into a widened holder axially from a longitudinal side of the toothed belt without it coming into abutment, as it is pushed in, against the side flanks (8, 9) of the shaped teeth, which bound the holder, and that each holder (7, 7') is formed between two successive shaped teeth which project from the toothed belt and have a cross section such that, in the holder (7, 7'), the workpiece introduced butts just against the two side flanks (8, 9) of the shaped teeth, which bound the holder (7, 7'), and not against the base of the holder (7, 7').
A magazine for sheet packaging elements, comprising at least two main conveyors arranged side by side, defining a main conveying space for said packaging elements and having respective horizontal main transport branches configured to cooperate in use with respective side portions of said packaging elements, so as to support said packaging elements in vertical positions, in which said packaging elements are partially housed in said main conveying space and extend transversally to said main transport branches, and to advance said packaging elements along a path parallel to said main transport branches, each main transport branch comprises a plurality of engaging portions protruding into the main conveying space and configured to cooperate in use with lateral recesses made in the side portions of the packaging elements, characterized in that each main conveyor is of chain-type, and said engaging portions define at least partially respective links of said main conveyor.
A cytosine permease variant consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein isoleucine, which is an amino acid corresponding to position 401 of SEQ ID NO: 3, is substituted with threonine.
An air vent for providing ventilation through a bore in a building structure, the air vent comprising a first body, which is locatable to a first, internal side of the building structure, a second body, which is locatable to a second, external side of the building structure and is coupled to the first body to provide a duct which extends through the building structure, and a cover unit; characterized in that the cover unit is movably disposed within the second body between a first, non-deployed position in which the cover unit is withdrawn within the second body to a second, deployed position in which the cover unit is deployed from the second body.
A particulate food preservative composition having an aerated density of 0.5-1.0 g/mL determined with a Hosokawa Micron Powder Characteristics Tester PT-N model, said composition comprising at least 60 wt.% of preservation granules having a diameter in the range of 300-1500 μm as determined by laser diffraction, wherein the preservation granules are compacted agglomerates of: a. particles containing at least 90 wt.% of chloride salt, said particles having a volume weighted mean diameter in the range of 30-400 μm; and b. particles containing at least 70 wt.% of alkali metal salt of organic acid, said particles having a volume weighted mean diameter in the range of 30-400 μm; said preservation granules comprising (i) at least 20 wt.% of chloride salt selected from sodium chloride, potassium chloride, magnesium chloride and combinations thereof; and (ii) 25-65 wt.% of an alkali metal salt of an organic acid selected from acetic acid, lactic acid, propionic acid and combinations thereof; the combination of the chloride salt and the alkali metal salt of an organic acid constituting at least 80 wt.% of the dry matter that is contained in the preservation granules; wherein the particles containing the chloride salt and the particles containing the alkali metal salt of organic acid are not bonded within the preservation granules by binding agent. said composition comprising at least 60 wt.% of preservation granules having a diameter in the range of 300-1500 μm as determined by laser diffraction, wherein the preservation granules are compacted agglomerates of: a. particles containing at least 90 wt.% of chloride salt, said particles having a volume weighted mean diameter in the range of 30-400 μm; and b. particles containing at least 70 wt.% of alkali metal salt of organic acid, said particles having a volume weighted mean diameter in the range of 30-400 μm; a. particles containing at least 90 wt.% of chloride salt, said particles having a volume weighted mean diameter in the range of 30-400 μm; and b. particles containing at least 70 wt.% of alkali metal salt of organic acid, said particles having a volume weighted mean diameter in the range of 30-400 μm; said preservation granules comprising (i) at least 20 wt.% of chloride salt selected from sodium chloride, potassium chloride, magnesium chloride and combinations thereof; and (ii) 25-65 wt.% of an alkali metal salt of an organic acid selected from acetic acid, lactic acid, propionic acid and combinations thereof; the combination of the chloride salt and the alkali metal salt of an organic acid constituting at least 80 wt.% of the dry matter that is contained in the preservation granules; wherein the particles containing the chloride salt and the particles containing the alkali metal salt of organic acid are not bonded within the preservation granules by binding agent.
A staple which comprises a length of metal wire shaped to form: a crown; and two spikes, each spike depending from a respective end of the crown and comprising: a shoulder at each end of the crown; a sharpened tip portion; and an elbow interposed between each tip portion and the shoulder, the elbow having a proximal limb that depends from a depending portion and a distal limb that depends from the proximal limb, so that the tip portion depends from the distal limb,the shoulder including the depending portion that depends from the crown; characterised in that an included angle (α) between a longitudinal axis of the crown and a longitudinal axis of the depending portion is between 91° and 96°; an included angle (β) between a longitudinal axis of the proximal limb and the longitudinal axis of the crown is between 60° and 85°; an included angle (ω) between the longitudinal axis of the crown and a longitudinal axis of each tip portion is between 85° and 95°; an included angle (γ) between a longitudinal axis of each distal limb and the longitudinal axis of the crown is between 95° and 130°, such that the length of metal wire is shaped so that when the spikes are driven into workpiece(s), the spikes are urged away from each other causing the crown to bow; and the shoulder has an internal radius of curvature greater than 2 mm. a crown; and two spikes, each spike depending from a respective end of the crown and comprising: a shoulder at each end of the crown; a sharpened tip portion; and an elbow interposed between each tip portion and the shoulder, the elbow having a proximal limb that depends from a depending portion and a distal limb that depends from the proximal limb, so that the tip portion depends from the distal limb,the shoulder including the depending portion that depends from the crown; a shoulder at each end of the crown; a sharpened tip portion; and an elbow interposed between each tip portion and the shoulder, the elbow having a proximal limb that depends from a depending portion and a distal limb that depends from the proximal limb, so that the tip portion depends from the distal limb,the shoulder including the depending portion that depends from the crown; characterised in that an included angle (α) between a longitudinal axis of the crown and a longitudinal axis of the depending portion is between 91° and 96°; an included angle (β) between a longitudinal axis of the proximal limb and the longitudinal axis of the crown is between 60° and 85°; an included angle (ω) between the longitudinal axis of the crown and a longitudinal axis of each tip portion is between 85° and 95°; an included angle (γ) between a longitudinal axis of each distal limb and the longitudinal axis of the crown is between 95° and 130°, such that the length of metal wire is shaped so that when the spikes are driven into workpiece(s), the spikes are urged away from each other causing the crown to bow; and the shoulder has an internal radius of curvature greater than 2 mm.
A method for preparing a rare earth sintered magnet from a corresponding alloy powder using a mold and a feeder, said mold comprising a die, an upper punch having a pressure surface, and a lower punch having a pressure surface, the pressure surface of one or both of the upper and lower punches being shaped non-planar, a cavity being defined between the die and the lower punch, the feeder including a shooter having a lower end port for passage of the alloy powder, the port being aligned with the cavity, said method comprising the steps of feeding the alloy powder from the feeder into the cavity through the shooter until the cavity is filled with the alloy powder, compressing the alloy powder fill in the cavity under a magnetic field between the upper and lower punches for uniaxial pressure molding to form a precursor, and heat treating the precursor, characterized in that the shooter is provided with a main sieve at its lower end port such that the main sieve is disposed closely above the cavity, the main sieve having a sifting surface of non-planar shape corresponding to that of the pressure surface of the upper or lower punch, and during the step of feeding the alloy powder into the cavity through the shooter, trembling and vertical reciprocation are applied to the shooter to assist the alloy powder to pass through the main sieve and fall into the cavity.
A refrigerator comprising: a cabinet that defines a first storage compartment; a first door that is opened or closed to allow or prevent access to an interior of the first storage compartment; a storing device coupled to a rear surface of the first door to define a second storage compartment, wherein, when the first door is closed, the second storage compartment is disposed in the first storage compartment; and a second door connected to the first door and configured to be opened or closed to allow or prevent access to an interior of the second storage compartment, wherein the storing device includes: a basket installation part disposed at the second storage compartment; and a basket slidably installed on the basket installation part, wherein the basket installation part and the basket are accessible when the first door is closed and at least the second door is opened, wherein the refrigerator further comprises a first hinge rotatably connecting the first door to the cabinet and including a first hinge shaft vertically extending downwardly; the refrigerator being characterised by a second hinge rotatably connecting the second door to the first door and including a second hinge shaft vertically extending downwardly, wherein the first door and the second door are configured to be opened and closed by rotating in a same direction, wherein the left and right width of the second door is the same as the left and right width of the first door. a cabinet that defines a first storage compartment; a first door that is opened or closed to allow or prevent access to an interior of the first storage compartment; a storing device coupled to a rear surface of the first door to define a second storage compartment, wherein, when the first door is closed, the second storage compartment is disposed in the first storage compartment; and a second door connected to the first door and configured to be opened or closed to allow or prevent access to an interior of the second storage compartment, wherein the storing device includes: a basket installation part disposed at the second storage compartment; and a basket slidably installed on the basket installation part, wherein the basket installation part and the basket are accessible when the first door is closed and at least the second door is opened, a basket installation part disposed at the second storage compartment; and a basket slidably installed on the basket installation part, wherein the basket installation part and the basket are accessible when the first door is closed and at least the second door is opened, wherein the refrigerator further comprises a first hinge rotatably connecting the first door to the cabinet and including a first hinge shaft vertically extending downwardly; the refrigerator being characterised by a second hinge rotatably connecting the second door to the first door and including a second hinge shaft vertically extending downwardly, wherein the first door and the second door are configured to be opened and closed by rotating in a same direction, wherein the left and right width of the second door is the same as the left and right width of the first door.
A system (100, 400) for power demand management, comprising: at least one electrically powered transport refrigeration unit, eTRU (110, 410), characterised in comprising a communications system (150, 450) associated with the at least one eTRU (110, 410); wherein the communications system (150, 450) is configured to communicate a pending start request and is configured to monitor for other start requests via a communication network (160, 162, 164) with one or more additional communications systems (150, 450) associated with one or more additional eTRUs (110, 410); and wherein, based at least in part on the pending start request and any other start requests via the communication network (160, 162, 164), the at least one eTRU (110, 410) is configured to determine a priority to start compared to the one or more additional eTRUs (110,410); and wherein a refrigeration unit of the at least one eTRU is configured to start when the at least one eTRU has priority over the one or more additional eTRUs (110, 410). at least one electrically powered transport refrigeration unit, eTRU (110, 410), characterised in comprising a communications system (150, 450) associated with the at least one eTRU (110, 410); wherein the communications system (150, 450) is configured to communicate a pending start request and is configured to monitor for other start requests via a communication network (160, 162, 164) with one or more additional communications systems (150, 450) associated with one or more additional eTRUs (110, 410); and wherein, based at least in part on the pending start request and any other start requests via the communication network (160, 162, 164), the at least one eTRU (110, 410) is configured to determine a priority to start compared to the one or more additional eTRUs (110,410); and wherein a refrigeration unit of the at least one eTRU is configured to start when the at least one eTRU has priority over the one or more additional eTRUs (110, 410).
A radio base station comprising: a control unit configured to determine a first allocation number of header compression sessions capable of being configured by the radio base station and a second allocation number of header compression sessions capable of being configured by another radio base station, on which a terminal performs dual connectivity, so that a total of the first allocation number and second allocation number is less than a maximum number of header compression sessions capable of being configured by the terminal; and a transmitting unit configured to transmit allocation information indicating the second allocation number to the other radio base station. a control unit configured to determine a first allocation number of header compression sessions capable of being configured by the radio base station and a second allocation number of header compression sessions capable of being configured by another radio base station, on which a terminal performs dual connectivity, so that a total of the first allocation number and second allocation number is less than a maximum number of header compression sessions capable of being configured by the terminal; and a transmitting unit configured to transmit allocation information indicating the second allocation number to the other radio base station.
A holding system for the dismantling of a blade wheel, the blade wheel comprising: - a disc, - a plurality of blades configured to be mounted circumferentially around the disc, the plurality of blades defining a plurality of inter-blade spaces, each of the inter-blade spaces being defined circumferentially between two adjacent blades (3a, 3b) of the plurality of blades, the holding system comprising a plurality of inserts, characterized in that each of the inserts are configured to be inserted into each of the inter-blade spaces in a holding position so as to hold the relative position of the blades when the plurality of blades is dismantled from the disc. - a disc, - a plurality of blades configured to be mounted circumferentially around the disc, the plurality of blades defining a plurality of inter-blade spaces, each of the inter-blade spaces being defined circumferentially between two adjacent blades (3a, 3b) of the plurality of blades,
A molding made of reactive foam, wherein at least one fiber is with a fiber region arranged inside the molding and surrounded by the reactive foam while a fiber region of the fiber projects from a first side of the molding and a fiber region of the fiber projects from a second side of the molding, wherein the reactive foam has been produced by a double-belt foaming process or a block foaming process, wherein the reactive foam comprises cells, wherein at least 50% of the cells are anisotropic, wherein at least one of the mechanical properties of the reactive foam is anisotropic, wherein the reactive foam is based on a polyurethane, a polyurea or a polyisocyanurate, wherein at least 50% of the cells based on their largest dimension (a-direction) are oriented at an angle γ of >60° relative to the thickness direction (d) of the molding, wherein the fiber has been introduced into the reactive foam at an angle α of 10° to 70° relative to the thickness direction (d) of the molding and wherein two or more fibers are present in the molding at an angle β to one another and the angle β is in the range β = 360°/n, wherein n is an integer. wherein the reactive foam comprises cells, wherein at least 50% of the cells are anisotropic, wherein at least one of the mechanical properties of the reactive foam is anisotropic, wherein the reactive foam is based on a polyurethane, a polyurea or a polyisocyanurate, wherein at least 50% of the cells based on their largest dimension (a-direction) are oriented at an angle γ of >60° relative to the thickness direction (d) of the molding, wherein the fiber has been introduced into the reactive foam at an angle α of 10° to 70° relative to the thickness direction (d) of the molding and wherein two or more fibers are present in the molding at an angle β to one another and the angle β is in the range β = 360°/n, wherein n is an integer.