mhurhangee/ep-ind-claims huggingface dataset:
A composition, comprising or consisting of an effective amount of 1,2-heptanediol; an effective amount of at least one antimicrobial component; and optionally at least one active substance for a food, a cosmetic or pharmaceutical composition or homecare product and/or additive; wherein the at least one antimicrobial component is selected from the group consisting of Caprylhydroxamic Acid, o-Cymen-5-ol, Isopropylparaben, Capryloyl Glycine, Tropolone, PCA Ethyl Cocoyl Arginate, 2-Methyl 5-Cyclohexylpentanol, Sodium Benzoate, Benzyl Alcohol, Potassium Sorbate, Benzyl Salicylate, Methylchloroisothiazolinone, Methylisothiazolinone, Ethylhexylglycerin, DMDM Hydantoin, Dehydroacetic Acid, Salicylic Acid, Chlorphenesin, Isobutylparaben, Diazolidinyl Urea, Farnesol, Glyceryl Caprylate, Sodium Phytate or Phytic Acid, Sodium Levulinate or Levulinic Acid and esters and/or ketals thereof, Chlorhexidine, Anisic Acid and its salts, TEA-salicylate, Phenethyl Alcohol, Glyceryl Caprate, Sorbitan Caprylate, Tetrasodium Glutamate Diacetate, Trisodium Ethylenediamine Disuccinate, Hydroxyethoxyphenyl Butanone, Hydroxyethoxyphenyl Butanol, Itaconic Acid, Octopirox, Propanediol Caprylate, Climbazole, Undecylenoyl Glycine, Thymol, 4-Hydroxyacetophenone, 1,3-propanediol, 2,3-pentanediol, 2,3-hexanediol, 2,3-heptanediol, 2,3-octanediol, 2,3-nonanediol, and mixtures of two or more the aforesaid antimicrobial components. an effective amount of 1,2-heptanediol; an effective amount of at least one antimicrobial component; and optionally at least one active substance for a food, a cosmetic or pharmaceutical composition or homecare product and/or additive;
A method, comprising: configuring, by a network node, at least one sidelink, SL, user equipment, UE, to use simultaneous sidelink, SL, transmission mode 1 and mode 2 for one or more sidelink, SL, logical channels, LCHs; and configuring the at least one sidelink, SL, user equipment, UE, with a plurality of transmission patterns related to the use of the sidelink, SL, transmission mode 1 or mode 2, characterized in that the transmission patterns indicate or include information on a sequential usage of the sidelink, SL, transmission mode 1 or mode 2 for transmitting packets, and criteria for the at least one sidelink, SL, user equipment, UE, to select and use the corresponding transmission pattern. configuring, by a network node, at least one sidelink, SL, user equipment, UE, to use simultaneous sidelink, SL, transmission mode 1 and mode 2 for one or more sidelink, SL, logical channels, LCHs; and configuring the at least one sidelink, SL, user equipment, UE, with a plurality of transmission patterns related to the use of the sidelink, SL, transmission mode 1 or mode 2, characterized in that the transmission patterns indicate or include information on a sequential usage of the sidelink, SL, transmission mode 1 or mode 2 for transmitting packets, and criteria for the at least one sidelink, SL, user equipment, UE, to select and use the corresponding transmission pattern.
A magnesium alloy, comprising: 0.2 to 2 wt% or less of Al, 0.2 to 1 wt% or less of Mn, 0.2 to 2 wt% of Zn, and at least 0.2 to 1 wt% of Ca, the remainder comprising Mg and unavoidable impurities, wherein a precipitate comprising Mg, Ca, and Al is dispersed on the plane of a magnesium matrix, characterized in that the magnesium alloy further contains a precipitate comprising Al and Mn, wherein the precipitate comprising Mg, Ca, and Al has a plate-like shape, a longer side of the plate falls within a range from 3 to 6 nm, and the number density of the precipitate falls within a range from 10 20 to 10 24 /m 3, and wherein the average grain size of the magnesium matrix is 20 μm or less. 0.2 to 2 wt% or less of Al, 0.2 to 1 wt% or less of Mn, 0.2 to 2 wt% of Zn, and at least 0.2 to 1 wt% of Ca, the remainder comprising Mg and unavoidable impurities, wherein a precipitate comprising Mg, Ca, and Al is dispersed on the plane of a magnesium matrix, characterized in that the magnesium alloy further contains a precipitate comprising Al and Mn, wherein the precipitate comprising Mg, Ca, and Al has a plate-like shape, a longer side of the plate falls within a range from 3 to 6 nm, and the number density of the precipitate falls within a range from 10 20 to 10 24 /m 3, and wherein the average grain size of the magnesium matrix is 20 μm or less.
A process for carrying out a reaction in a reaction column, said process comprising: providing a first reactant to the reaction column in the liquid phase; contacting said first reactant with an excess of a second reactant such that reaction takes place within the reaction column to form a low boiling product and a high boiling product, a portion of said second reactant being provided to the reaction column in the vapour phase; recovering an overhead stream from at, or near, the top of the reaction column, said overhead stream comprising unreacted second reactant and the low boiling product; and recovering a bottoms stream from at, or near, the bottom of the reaction column comprising the high boiling product; wherein at least a portion of the heat required to vaporise the second reactant provided to the reaction column in the vapour phase is provided by heat exchange in a heat exchanger (17, 37, 32) with a hot stream (28, 38, 31) generated within the process other than a hot stream generated within the reaction column, wherein the hot stream (28, 38, 31) is recovered from a distillation column; and wherein said second reactant fed as liquid to the reaction column is vaporised within the reaction column reboiler. providing a first reactant to the reaction column in the liquid phase; contacting said first reactant with an excess of a second reactant such that reaction takes place within the reaction column to form a low boiling product and a high boiling product, a portion of said second reactant being provided to the reaction column in the vapour phase; recovering an overhead stream from at, or near, the top of the reaction column, said overhead stream comprising unreacted second reactant and the low boiling product; and recovering a bottoms stream from at, or near, the bottom of the reaction column comprising the high boiling product; wherein at least a portion of the heat required to vaporise the second reactant provided to the reaction column in the vapour phase is provided by heat exchange in a heat exchanger (17, 37, 32) with a hot stream (28, 38, 31) generated within the process other than a hot stream generated within the reaction column, wherein the hot stream (28, 38, 31) is recovered from a distillation column; and wherein said second reactant fed as liquid to the reaction column is vaporised within the reaction column reboiler.
An infrared thermometer with an infrared sensor, adapted for determining a temperature of a patient based on a measurement on a predetermined spot on or in a human or animal body selected from at least two predetermined spots, wherein the infrared thermometer further comprises recognition means for recognizing if the infrared thermometer is properly positioned on said spot, characterized in that the recognition means is further adapted to recognize on which predetermined spot of the at least two predetermined spots the thermometer is positioned, wherein the recognition means is selected from the group of an optical detection means, in particular an optical sensor capable of measuring light, and a capacitive sensor, wherein the infrared thermometer further comprises means for selecting from a set of preinstalled algorithms the appropriate algorithm for the specific spot corresponding to determination of a core temperature based on measurement on the predetermined spot, wherein the selection of the algorithm is triggered automatically by the recognition of the predetermined spot from the at least two predetermined spots by the recognition means.
A detachable header, configured to be detachably coupled to a frond end of a feeder of an agricultural working machine, wherein the header comprises a back wall and at least one support and transport wheel assembly (11,12), the assembly comprising an axle and two wheels (14a,14b) attached at the two ends of the axle, the assembly being movable between a field position wherein the axle is essentially parallel to the longitudinal direction of the header and a transport position wherein the axle is transversal to said longitudinal direction, wherein the header comprises an actuating system configured to move the wheel assembly from the field position to the transport position and vice versa, the actuating system comprising a swivel actuator mechanism (40,41) configured to actuate a swivel movement of the axle and the wheels (14a,14b), the swivel movement being configured to bring the wheel assembly to or from a position wherein the axle is transversal to the longitudinal direction of the header, characterized in that the wheel assembly comprises a deployable drawbar, that is pivotable between an essentially vertical storage position and an essentially horizontal deployed position, and further comprises a drawbar actuator configured to actuate a pivoting movement of the drawbar between said two positions, and wherein the actuator mechanism (40,41) of the swivel movement and the drawbar actuator are configured so that the pivoting movement of the drawbar is synchronized with the swivel movement of the axle, so that the drawbar is brought from the storage position to the deployed position as the wheel assembly swivels towards the transversal position of the axle, and vice versa.
A server comprising: a port configured to receive collected data from a plurality of navigation devices (102, 102A-102C) that each include at least one gyroscope (106A-106C) or accelerometer (107A-107C) and that each further include at least one predictive health monitoring module configured to collect diagnostic parameters correlated to the at least one gyroscope (106A-106C) or accelerometer (107A-107C), wherein the collected data from the plurality of navigation devices (102, 102A-102C) comprises a plurality of diagnostic parameters obtained from the predictive health monitoring module of the at least one gyroscope (106A-106C) or accelerometer (107A-107C); a memory, the memory configured to store the collected data (112, 118) from the plurality of navigation devices (102, 102A-102C); and a processing device communicatively coupled to the memory, wherein the processing device is configured to analyze the collected data (112, 118) from the plurality of navigation devices (102, 102A-102C) to determine a service prognosis for the at least one gyroscope (106A-106C) or accelerometer (107A-107C). a port configured to receive collected data from a plurality of navigation devices (102, 102A-102C) that each include at least one gyroscope (106A-106C) or accelerometer (107A-107C) and that each further include at least one predictive health monitoring module configured to collect diagnostic parameters correlated to the at least one gyroscope (106A-106C) or accelerometer (107A-107C), wherein the collected data from the plurality of navigation devices (102, 102A-102C) comprises a plurality of diagnostic parameters obtained from the predictive health monitoring module of the at least one gyroscope (106A-106C) or accelerometer (107A-107C); a memory, the memory configured to store the collected data (112, 118) from the plurality of navigation devices (102, 102A-102C); and a processing device communicatively coupled to the memory, wherein the processing device is configured to analyze the collected data (112, 118) from the plurality of navigation devices (102, 102A-102C) to determine a service prognosis for the at least one gyroscope (106A-106C) or accelerometer (107A-107C).
A trocar through which a surgical instrument is insertable in a body, comprising: a pipe including a pipe outer cylinder slidable in an axial direction and a pipe inner cylinder with a distal end notch; a camera that is journaled at the distal end notch of the pipe inner cylinder, wherein the camera is turnable between a development state in which the camera turns to the outside of the pipe and a storage state in which the camera is stored inside the pipe; and two coil springs, in the pipe inner cylinder, biasing the camera to the development state, wherein the slidable pipe outer cylinder is configured to store the camera in the pipe against biasing force of the two coil springs while sliding toward a distal end of the pipe, wherein each of the two coil springs is accommodated in a recessed groove extending on an outer side of the pipe inner cylinder along the axial direction of the pipe from the distal end notch of the pipe inner cylinder to an operator side, and a ring-shaped portion (12a, 12b) on the near side of each of the two coil springs is fixed into the recessed groove. a pipe including a pipe outer cylinder slidable in an axial direction and a pipe inner cylinder with a distal end notch; a camera that is journaled at the distal end notch of the pipe inner cylinder, wherein the camera is turnable between a development state in which the camera turns to the outside of the pipe and a storage state in which the camera is stored inside the pipe; and two coil springs, in the pipe inner cylinder, biasing the camera to the development state, wherein the slidable pipe outer cylinder is configured to store the camera in the pipe against biasing force of the two coil springs while sliding toward a distal end of the pipe, wherein each of the two coil springs is accommodated in a recessed groove extending on an outer side of the pipe inner cylinder along the axial direction of the pipe from the distal end notch of the pipe inner cylinder to an operator side, and a ring-shaped portion (12a, 12b) on the near side of each of the two coil springs is fixed into the recessed groove.
Method for the implementation and use of cryptographic material in at least one system component of an information technology system (IT-S) for carrying out at least one operation, wherein a state of the system component described by at least one variable is checked at least at a first point in time, the cryptographic material is supplemented with additional data, wherein the additional data describe possible states of system components, and the cryptographic material is used by the system component if the additional data of the cryptographic material comprise at least the state that the system component has at the first point in time, characterized in that the additional data of at least one condition (BED, BED KM *, BED KM Prov, BED KM Type(skid), BED KM Type(skid), Prov), at least one role (ROLE KM *) and/or at least one target component identity (ZKIDENT KM) are formed; and at least one condition (BED KM Prov, BED KM Type(skid), BED KM Type(skid), Prov) is defined in a target component-specific and/or operation-specific manner.
An airbag device comprising: an inflator that generates a gas; an airbag that is inflated by the gas generated by the inflator; a retainer that is provided with an insertion port into which the inflator is inserted; a bag ring that mounts the airbag in the retainer; and a spring (30, 40) that fixes the inflator inserted into the insertion port, wherein the spring (30, 40) is provided in the inflator, and a protrusion which stands on the bag ring and of which a tip has an L shape or a wedge shape penetrates the retainer and is engaged with the spring (30, 40), so that the inflator is fixed. an inflator that generates a gas; an airbag that is inflated by the gas generated by the inflator; a retainer that is provided with an insertion port into which the inflator is inserted; a bag ring that mounts the airbag in the retainer; and a spring (30, 40) that fixes the inflator inserted into the insertion port, wherein the spring (30, 40) is provided in the inflator, and a protrusion which stands on the bag ring and of which a tip has an L shape or a wedge shape penetrates the retainer and is engaged with the spring (30, 40), so that the inflator is fixed.
Low dropout regulator, comprising an output transistor (MPOUT) with a controlled section coupled between a first supply terminal and an output terminal, and a differential amplifier that comprises: - a feedback input coupled to the output terminal; - a reference input for receiving a reference voltage; - an output (DOUT) connected to a control terminal of the output transistor (MPOUT); and - at least one pair of input transistors (M1, M2, M1a, M2a, M1b, M2b); wherein - the input transistors (M1, M2, M1a, M2a, M1b, M2b) of each pair are commonly connected to a tail current source (Iab, Ia, Ib) of the respective pair; - a control terminal of a respective first transistor (M1, M1a, M1b) of each pair is connected to the reference input; - a control terminal of a respective second transistor (M2, M2a, M2b) of each pair is connected to the feedback input; - a first capacitive element is coupled between the output terminal and the common connection (S, Sa) of the input transistors (M1, M2, M1a, M2a, M1b, M2b) of one pair with their respective tail current source (Iab, Ia, Ib); and - a second capacitive element is coupled between a second supply terminal and the common connection (S, Sb) of the input transistors (M1, M2, M1a, M2a, M1b, M2b) of one pair with their respective tail current source (Iab, Ia, Ib). - a feedback input coupled to the output terminal; - a reference input for receiving a reference voltage; - an output (DOUT) connected to a control terminal of the output transistor (MPOUT); and - at least one pair of input transistors (M1, M2, M1a, M2a, M1b, M2b); wherein - the input transistors (M1, M2, M1a, M2a, M1b, M2b) of each pair are commonly connected to a tail current source (Iab, Ia, Ib) of the respective pair; - a control terminal of a respective first transistor (M1, M1a, M1b) of each pair is connected to the reference input; - a control terminal of a respective second transistor (M2, M2a, M2b) of each pair is connected to the feedback input; - a first capacitive element is coupled between the output terminal and the common connection (S, Sa) of the input transistors (M1, M2, M1a, M2a, M1b, M2b) of one pair with their respective tail current source (Iab, Ia, Ib); and - a second capacitive element is coupled between a second supply terminal and the common connection (S, Sb) of the input transistors (M1, M2, M1a, M2a, M1b, M2b) of one pair with their respective tail current source (Iab, Ia, Ib).
A method of data transmission between a mobile network and a terminal device, the method comprising: a node (100; 300) of the mobile network allocating an uplink control channel resource to the terminal device and to a further terminal device; the node (100; 300) assigning a shared identifier to both the terminal device and the further terminal device; using the allocated uplink control channel resource, the node (100; 300) receiving a scheduling request from the terminal device; in response to receiving the scheduling request, the node (100; 300) sending an uplink grant, the uplink grant being addressed by the shared identifier to the terminal device and to the further terminal device; and the node (100; 300) receiving uplink data from the terminal device on uplink resources indicated by the uplink grant. a node (100; 300) of the mobile network allocating an uplink control channel resource to the terminal device and to a further terminal device; the node (100; 300) assigning a shared identifier to both the terminal device and the further terminal device; using the allocated uplink control channel resource, the node (100; 300) receiving a scheduling request from the terminal device; in response to receiving the scheduling request, the node (100; 300) sending an uplink grant, the uplink grant being addressed by the shared identifier to the terminal device and to the further terminal device; and the node (100; 300) receiving uplink data from the terminal device on uplink resources indicated by the uplink grant.
Evaporator, such as an agitated thin film evaporator, a wiped film evaporator, a short-path evaporator or a thin film dryer, comprising: a drum comprising: a product inlet arranged in a first upper portion of the drum, a product outlet arranged in a second lower portion of the drum, a vapor outlet, and an agitator, a heating jacket (11; 110) arranged to surround the drum and adapted to heat the product in the drum, characterized in that the evaporator further comprises a product supply pipe being arranged outside the drum and extending from the second lower portion of the drum to the product inlet in the first upper portion of the drum, and the product supply pipe being arranged in direct contact with the heating jacket (11; 110) thereby allowing preheating of the product supplied to the product inlet of the drum via the product supply pipe. a drum comprising: a product inlet arranged in a first upper portion of the drum, a product outlet arranged in a second lower portion of the drum, a vapor outlet, and an agitator, a product inlet arranged in a first upper portion of the drum, a product outlet arranged in a second lower portion of the drum, a vapor outlet, and an agitator, a heating jacket (11; 110) arranged to surround the drum and adapted to heat the product in the drum, characterized in that the evaporator further comprises a product supply pipe being arranged outside the drum and extending from the second lower portion of the drum to the product inlet in the first upper portion of the drum, and the product supply pipe being arranged in direct contact with the heating jacket (11; 110) thereby allowing preheating of the product supplied to the product inlet of the drum via the product supply pipe.