mhurhangee/ep-ind-claims huggingface dataset:
Measuring instrument (10, 210) for the gravimetric determination of moisture content with a housing (20, 220) and a weighing device arranged inside the housing (20, 220), wherein the weighing device comprises a load receiver (60, 260) onto which a sample can be placed, wherein further the housing (20, 220) comprises a stationary housing part (21, 221) and a movable housing part (22, 222), wherein the movable housing part (22, 222) can alternately occupy a measuring position and a loading position, wherein in said loading position the stationary housing part (21, 221) and the movable housing part (22, 222) are spaced apart from each other in such a way that a sample can be put on the load receiver (60, 260), wherein in said measuring position, the stationary housing part (21, 221) and the movable housing part (22, 222) form an essentially enclosed testing compartment (30, 230) surrounding the load receiver (60, 260), and wherein a sample-heating means (70, 270) is arranged in the testing compartment (30, 230) to perform the function of heating a sample that is placed on the load receiver (60, 260), characterized in that the measuring instrument (10, 210) comprises an electrical contact means (85, 285) having a first part (86, 286) and a second part (87, 287) and that the first part (86, 286) of the electrical contact means (85, 285) is connected to the stationary housing part (21, 221) and the second part (87, 287) of the electrical contact means (85, 285) is connected to the movable housing part (22, 222), wherein in the measuring position an electrical connection exists by way of the first part (86, 286) and the second part (87, 287) of the electrical contact means (85, 285), and wherein in the loading position the electrical connection between the first part (86, 286) and the second part (87, 287) of the electrical contact means (85, 285) is interrupted; and further that only the stationary housing part (21, 221) is connected to the power grid by means of a power connection (88, 288), and that the movable housing part (22, 222) can be supplied with electricity only by way of the electrical contact means (85, 285).
A resonance circuit for a measurement device, configured to receive a pulse density signal obtained by Δ∑-modulating an analog displacement signal by a Δ∑ modulator and a multi-bit signal obtained from the pulse density signal and to generate an excitation signal based on the pulse density signal and the multi-bit signal, the resonance circuit comprising: an amplification factor controller configured to set an amplification factor depending on a vibration signal obtained from the multi-bit signal; a multiplier configured to amplify a level of the pulse density signal by the amplification factor; and a circuit group (148, 150, 152) configured to generate the excitation signal based on a pulse density signal obtained by further Δ∑-modulating an output of the multiplier; wherein the amplification factor controller is configured to set the amplification factor using a proportional control and an integral control based on a difference between an amplitude signal obtained from the vibration signal and a target amplitude value, wherein the amplification factor controller comprises an amplifier and an integrator, the amplifier configured to amplify the difference between the amplitude signal obtained from the vibration signal and the target amplitude value, the integrator configured to integrate a value outputted from the amplifier, and wherein the amplification factor controller further comprises another amplifier and an adder, the other amplifier configured to amplify the difference between the amplitude signal obtained from the vibration signal and the target amplitude value, the adder configured to add a value of the proportional control outputted by the other amplifier and a value of the integral control outputted by the integrator. an amplification factor controller configured to set an amplification factor depending on a vibration signal obtained from the multi-bit signal; a multiplier configured to amplify a level of the pulse density signal by the amplification factor; and a circuit group (148, 150, 152) configured to generate the excitation signal based on a pulse density signal obtained by further Δ∑-modulating an output of the multiplier; wherein the amplification factor controller is configured to set the amplification factor using a proportional control and an integral control based on a difference between an amplitude signal obtained from the vibration signal and a target amplitude value, wherein the amplification factor controller comprises an amplifier and an integrator, the amplifier configured to amplify the difference between the amplitude signal obtained from the vibration signal and the target amplitude value, the integrator configured to integrate a value outputted from the amplifier, and wherein the amplification factor controller further comprises another amplifier and an adder, the other amplifier configured to amplify the difference between the amplitude signal obtained from the vibration signal and the target amplitude value, the adder configured to add a value of the proportional control outputted by the other amplifier and a value of the integral control outputted by the integrator.
A glass panel unit comprising: a first glass panel; a second glass panel placed opposite the first glass panel; a seal with a frame shape placed between the first glass panel and the second glass panel to hermetically bond the first glass panel and the second glass panel to each other; an evacuated space enclosed by the first glass panel, the second glass panel, and the seal; and a gas adsorbent placed in the evacuated space and including a getter, the gas adsorbent being visible through at least one of the first glass panel and the second glass panel, and having properties of changing its color when adsorbing gas. a first glass panel; a second glass panel placed opposite the first glass panel; a seal with a frame shape placed between the first glass panel and the second glass panel to hermetically bond the first glass panel and the second glass panel to each other; an evacuated space enclosed by the first glass panel, the second glass panel, and the seal; and a gas adsorbent placed in the evacuated space and including a getter, the gas adsorbent being visible through at least one of the first glass panel and the second glass panel, and having properties of changing its color when adsorbing gas.
An aqueous inkjet ink comprising an aqueous vehicle, a pigment, a polymeric dispersant, a polymeric binder and a water insoluble additive, wherein said polymeric dispersant and said polymeric binder are different polymers, and said additive is dispersed by said polymeric dispersant and said polymeric binder, has a solubility in water of less than 5 grams in 100 grams of water, and contains one or more molecules having a structure of Formula I: wherein W 1 is OR 3 or COOH; W 2 is OR 3, COOH, SO 3 H or NH 2; R 1 is H or C 1 -C 20 linear alkyl, R 2 is C 1 -C 20 linear alkyl, C 3 -C 20 branched alkyl, C 6 -C 40 aryl or C 6 -C 40 substituted aryl, each R 3 is independently H, C 3 -C 20 branched alkyl or C 3 -C 20 substituted branched alkyl; each R 4 is independently H, C 1 -C 20 linear alkyl or C 3 -C 20 branched alkyl; and each R 5 is independently H or C 1 -C 20 linear alkyl.
A multicolor light emitting package comprising: a white light emitting diode (820, 920) operative to emit a white light; a multicolor light emitting diode (810, 910) operative to emit a colored light; characterised by: a first light guide optically coupled to the white light emitting diode (820, 920) and having a first ramp shape; and a second light guide optically coupled to the multicolor light emitting diode (810, 910), the second light guide having a second ramp shape, wherein the second light guide is adjacent to the first light guide and wherein the first and second light guides are configured to combine the white light and the colored light, thereby producing output light. a white light emitting diode (820, 920) operative to emit a white light; a multicolor light emitting diode (810, 910) operative to emit a colored light; a first light guide optically coupled to the white light emitting diode (820, 920) and having a first ramp shape; and a second light guide optically coupled to the multicolor light emitting diode (810, 910), the second light guide having a second ramp shape, wherein the second light guide is adjacent to the first light guide and wherein the first and second light guides are configured to combine the white light and the colored light, thereby producing output light.
A method for preserving a hot prepared food component comprising the following steps a. hot preparation of a quantity of the food component for a plurality of consumption portions, wherein the hot preparation comprises heating the food component to the point of cooking and takes place in an open cooking container, b. filling of the hot-prepared food component at a temperature of at least 75°C into a plurality of packaging units and subsequent sealing of the packaging units, c. cooling the packaging units from a core temperature of at least 65°C to a core temperature of less than 3°C within 90 min or less, characterized in that the filling according to step b) of the method is carried out with the aid of an automatic thermoforming machine which carries out the following steps i. embossing of packaging units in tray form, ii. filling of the food components at a temperature of at least 75°C into the packaging units, iii. steam rinsing of the packaging units with steam of a temperature of 100°C or more, iv. sealing of the packaging units, and wherein the cooling of the packaging units in step c) takes place in a water bath, the temperature of which is 3°C or less. a. hot preparation of a quantity of the food component for a plurality of consumption portions, wherein the hot preparation comprises heating the food component to the point of cooking and takes place in an open cooking container, b. filling of the hot-prepared food component at a temperature of at least 75°C into a plurality of packaging units and subsequent sealing of the packaging units, c. cooling the packaging units from a core temperature of at least 65°C to a core temperature of less than 3°C within 90 min or less, characterized in that the filling according to step b) of the method is carried out with the aid of an automatic thermoforming machine which carries out the following steps i. embossing of packaging units in tray form, ii. filling of the food components at a temperature of at least 75°C into the packaging units, iii. steam rinsing of the packaging units with steam of a temperature of 100°C or more, iv. sealing of the packaging units,
A device for distributing a fluid supplying at least one granular bed of a multistage column having a succession of plates, each plate supporting a bed of granular solid and being divided into adjacent meridional panels, i.e. rectangular, oriented along the same direction in length and having substantially the same width, said panels denoted (Pa), covering the whole of the column section, said device being applied to at least a portion of the panels (Pa) of the plate, said device comprising in apposition denoted P1 and following the fluid flow: a)-a screen or perforated plate termed the upper screen acting to support the bed of particles located above the plate, b)-a collection baffle which is open at its center, c)- a deflector placed between the collection baffle and the distributor, in a position denoted, d)-a distributor composed of a screen or a perforated plate for re-distributing the flow leaving the panel over the entire surface of the bed of particles located below the panel, e)-a jet breaker positioned above or below the distributor and placed at the edges of the panel (Pa), the distance between the end of the deflector and the edge of the plate being in the range 5 to 200 mm, the thickness of the deflector being in the range 0.5 to 10 mm. a)-a screen or perforated plate termed the upper screen acting to support the bed of particles located above the plate, b)-a collection baffle which is open at its center, c)- a deflector placed between the collection baffle and the distributor, in a position denoted, d)-a distributor composed of a screen or a perforated plate for re-distributing the flow leaving the panel over the entire surface of the bed of particles located below the panel, e)-a jet breaker positioned above or below the distributor and placed at the edges of the panel (Pa),
An electrode assembly for a flow battery, comprising: - a porous electrode material; - a frame surrounding the porous electrode material; - at least a first distributor tube at least partially embedded in the porous electrode material, the first distributor tube having an inlet for supplying electrolyte to the porous electrode material; and - at least a second distributor tube at least partially embedded in the porous electrode material, the second distributor tube having an outlet for discharging electrolyte out of the porous electrode material, wherein the frame and the distributor tubes are made of an electrically non-conductive plastic material. - a porous electrode material; - a frame surrounding the porous electrode material; - at least a first distributor tube at least partially embedded in the porous electrode material, the first distributor tube having an inlet for supplying electrolyte to the porous electrode material; and - at least a second distributor tube at least partially embedded in the porous electrode material, the second distributor tube having an outlet for discharging electrolyte out of the porous electrode material,
A method performed by a base station for traffic control in a wireless communication system, the method comprising: receiving information about a terminal to be controlled, the information including an allocation and retention priority, ARP, value requested to be changed; identifying the terminal to be controlled based on the ARP value requested to be changed, wherein the ARP value requested to be changed is greater as traffic usage of the terminal to be controlled is greater; detecting a congestion situation in a cell based on a ratio of terminals having a throughput equal to or less than a predetermined threshold value in the cell; and changing a parameter relating to scheduling of the terminal to be controlled, according to the detection of the congestion situation. receiving information about a terminal to be controlled, the information including an allocation and retention priority, ARP, value requested to be changed; identifying the terminal to be controlled based on the ARP value requested to be changed, wherein the ARP value requested to be changed is greater as traffic usage of the terminal to be controlled is greater; detecting a congestion situation in a cell based on a ratio of terminals having a throughput equal to or less than a predetermined threshold value in the cell; and changing a parameter relating to scheduling of the terminal to be controlled, according to the detection of the congestion situation.
A method for securely authenticating digital records, CHARACTERISED BY: inputting a series of record blocks, each block comprising a plurality of the digital records ( rec 1,..., rec 4), each digital record indicating and corresponding to a computer system event represented and stored in a system log; generating at least one substantially random number ( rnd B1); for each record block: computing an input record hash value ( r 1,..., r 4) for each of the digital records in the block; computing a blinding mask value ( m 1,..., m 4) as a hash function having the substantially random number as an input parameter; for each input record hash value, computing a masked hashed input value ( x 1,..., x 4) as a hash of the input record hash value and a respective one of the blinding masked values, said masked hashed input values constituting nodes of a hash tree; computing subsequently aggregated hash tree values to form a single, root hash value ( x root); keylessly digitally signing the root hash value; and in a verification phase: verifying a record block using the keylessly digitally signed root hash value. inputting a series of record blocks, each block comprising a plurality of the digital records ( rec 1,..., rec 4), each digital record indicating and corresponding to a computer system event represented and stored in a system log; generating at least one substantially random number ( rnd B1); for each record block: computing an input record hash value ( r 1,..., r 4) for each of the digital records in the block; computing a blinding mask value ( m 1,..., m 4) as a hash function having the substantially random number as an input parameter; for each input record hash value, computing a masked hashed input value ( x 1,..., x 4) as a hash of the input record hash value and a respective one of the blinding masked values, said masked hashed input values constituting nodes of a hash tree; computing subsequently aggregated hash tree values to form a single, root hash value ( x root); computing an input record hash value ( r 1,..., r 4) for each of the digital records in the block; computing a blinding mask value ( m 1,..., m 4) as a hash function having the substantially random number as an input parameter; for each input record hash value, computing a masked hashed input value ( x 1,..., x 4) as a hash of the input record hash value and a respective one of the blinding masked values, said masked hashed input values constituting nodes of a hash tree; computing subsequently aggregated hash tree values to form a single, root hash value ( x root); keylessly digitally signing the root hash value; and in a verification phase: verifying a record block using the keylessly digitally signed root hash value.
A lock comprising a body; a cylinder lock located in the body; a bolt member having at least one locking bolt; a plate; a latch bolt assembly having a latch bolt; a spindle hub for transferring movement received from a handle, and a spindle hub spring suitable to be biased by rotation of the spindle hub characterized in that said lock comprises: an elevating tab protruding from the spindle hub; a plate pin which is suitable to engage with the elevating tab by rotating the spindle hub in clockwise direction, and which is attached with the plate and capable of elevating the plate upon release of force exerted on the spindle hub spring; a bolt intermediate member attached with the bolt member; and a bolt pusher apparatus for applying pressure to the bolt intermediate member, which enables retraction of the at least one locking bolt into the body when the plate is elevated; and at least one spindle hub tab protruding from the spindle hub which pushes the bolt pusher apparatus when the spindle hub is rotated. an elevating tab protruding from the spindle hub; a plate pin which is suitable to engage with the elevating tab by rotating the spindle hub in clockwise direction, and which is attached with the plate and capable of elevating the plate upon release of force exerted on the spindle hub spring; a bolt intermediate member attached with the bolt member; and a bolt pusher apparatus for applying pressure to the bolt intermediate member, which enables retraction of the at least one locking bolt into the body when the plate is elevated; and at least one spindle hub tab protruding from the spindle hub which pushes the bolt pusher apparatus when the spindle hub is rotated.
Towel with at least one inwardly located, externally protected region, the at least one inner surface (100', 100") of which is formed from a material for drying body parts and the region is accessible via at least one reversible closure means for drying body parts by means of the at least one inner surface (100', 100"), characterised in that at least one inner surface (100', 100") of the towel is watertight towards the outside of the region, the protected region is formed by means of at least one watertight connection from a folded-over region of the towel or is connected to the material of the towel and is formed from connections aligned laterally and longitudinally on the towel wherein the region has the at least one reversible closure means on its open side and openings are provided on the side edges (103', 103") of the region, by means of which openings it is possible to reach at least partially through with the hands and the at least one inner surface (100', 100") of the region can thereby be folded outwards.
A method in a first base station of a wireless communications system for controlling handover, the first base station serving a first cell in a first cell layer overlapping with a second cell layer, wherein the first cell has a different distribution of configured amounts of uplink and downlink resources than a second cell in the second cell layer, the method comprising: - monitoring amounts of uplink and downlink resources used by a first user equipment in the first cell, and - adjusting at least one parameter controlling a handover of the first user equipment to the second cell in the second cell layer, based on the monitored amounts of uplink and downlink resources used by the first user equipment, and on information regarding configured amounts of uplink and downlink resources in the first and the second cell respectively, such that it is more likely that the first user equipment will be served by a one of the first or second cells with a good match to a distribution of the monitored amounts of uplink and downlink resources with regards to a distribution of the configured amounts of uplink and downlink resources. - monitoring amounts of uplink and downlink resources used by a first user equipment in the first cell, and - adjusting at least one parameter controlling a handover of the first user equipment to the second cell in the second cell layer, based on the monitored amounts of uplink and downlink resources used by the first user equipment, and on information regarding configured amounts of uplink and downlink resources in the first and the second cell respectively, such that it is more likely that the first user equipment will be served by a one of the first or second cells with a good match to a distribution of the monitored amounts of uplink and downlink resources with regards to a distribution of the configured amounts of uplink and downlink resources.
A prosthetic heart valve configured to be crimped to a radially collapsed configuration on a delivery catheter and expanded inside a patient by an inflatable balloon, the prosthetic valve comprising: an annular frame made of a nickel-cobalt-chromium alloy and comprising an inflow end and an outflow end and being radially compressible and expandable between a radially compressed and a radially expanded configuration; a leaflet structure positioned within the frame and secured thereto; an outer sealing member (18; 200; 300; 500) mounted outside of the frame and adapted to seal against surrounding tissue when the prosthetic heart valve is implanted within a native heart valve annulus of a patient, the sealing member (18; 200; 300; 500) comprising a plush fabric. an annular frame made of a nickel-cobalt-chromium alloy and comprising an inflow end and an outflow end and being radially compressible and expandable between a radially compressed and a radially expanded configuration; a leaflet structure positioned within the frame and secured thereto; an outer sealing member (18; 200; 300; 500) mounted outside of the frame and adapted to seal against surrounding tissue when the prosthetic heart valve is implanted within a native heart valve annulus of a patient, the sealing member (18; 200; 300; 500) comprising a plush fabric.