mhurhangee/ep-ind-claims huggingface dataset:
Cleaning machine for containers, in particular bottles from glass or plastics, comprising several stations (1 - 9) arranged behind each other along at least one container-handling- and conveying route (11, 29) in conveying direction of the containers, in which stations containers conveyed through the cleaning machine can be cleaned in a pre-cleaning station arranged downstream of an unpacking- and pre-soaking- station having a high-pressure-waterjet- and pre-soaking-pre-cleaning course and can be cleaned intensively in a subsequently arranged intensive cleaning station having at least one intensive cleaning course (11a, 11b) by use of at least one cleaning medium, characterized in that at least two parallel intensive cleaning courses (11a, 11b) of different lengths are arranged in the intensive cleaning station, operated with granular material free of chemicals and a pressurized carrier medium free of chemicals contained in the cleaning medium, that a pressure-jet system for the cleaning medium is respectively allocated to a starting region of each of the intensive cleaning courses (11a, 11b), that a container-inspection-station having an inspection device for detecting the contamination degrees of the containers, for differentiating between contaminations and for selectively supplying the intensive cleaning courses (11a, 11b) of different lengths with containers depending from contamination degrees detected as allowable for the intensive cleaning station is arranged between the pre-cleaning station and the intensive cleaning station, that the intensive cleaning courses (11a, 11b) are interlinked by switches (26, 27) controlled by the inspection device, that at least one container-disinfection station is arranged behind the intensive cleaning station, and that the container-inspection device is additionally adapted for detecting too strongly contaminated and/or no more usable containers and sorting-out these containers upstream of the intensive cleaning station via a switch also controlled by the inspection device and for example to a collector.
Safety system installed onboard a rail vehicle, wherein said system comprises a safety management computer connected to at least one specific transmission module (2, 3, 4) by communication devices according to UNISIG subset 035, FFFIS STM standard, characterised in that the specific transmission module (2, 3, 4) comprises: • European standard UNISIG subset 035, FFFIS STM control devices, and • at least one automatic management facility (11, 12) of the rail vehicle according to a national standard different from the UNISIG subset 035 FFFIS STM European standard controlled by the control devices via connection devices (13, 14); said control devices comprising: • communication devices according to UNISIG subset 035, FFFIS STM standard capable of receiving control commands from a safety management computer and exchanging information with this, and • computing devices capable of transforming the commands received by the communication devices into commands adapted to control the or each automatic management facility (11, 12) of the rail vehicle. • European standard UNISIG subset 035, FFFIS STM control devices, and • at least one automatic management facility (11, 12) of the rail vehicle according to a national standard different from the UNISIG subset 035 FFFIS STM European standard controlled by the control devices via connection devices (13, 14); • communication devices according to UNISIG subset 035, FFFIS STM standard capable of receiving control commands from a safety management computer and exchanging information with this, and • computing devices capable of transforming the commands received by the communication devices into commands adapted to control the or each automatic management facility (11, 12) of the rail vehicle.
An infrared-sensitive lighting device, comprising: a host having a backside installable on an installation surface; a light-emitting module disposed on the host, wherein the light-emitting module emits a light beam to provide a lighting behavior; and an infrared sensing module comprising a casing, a circuit board, a sensor and a semispherical lens cover, wherein the casing is installed on the host and has an opening, the circuit board is disposed within the casing, the sensor is installed on the circuit board and aligned with the opening, the semispherical lens cover is rotatably mounted on the opening, and the semispherical lens cover has a lens pattern, wherein the installation surface is a wall or a ceiling, wherein when the backside of the host is installed on the wall in a wall-mounting manner, the semispherical lens cover is rotated relative to the opening to have the semispherical lens cover be in a first state, so that the sensor performs a sensing operation at a first direction angle through the lens pattern, and when the backside of the host is installed on the ceiling in a suspension manner, the semispherical lens cover is rotated relative to the opening to have the semispherical lens cover be in a second state, so that the sensor performs the sensing operation at a second direction angle through the lens pattern. a host having a backside installable on an installation surface; a light-emitting module disposed on the host, wherein the light-emitting module emits a light beam to provide a lighting behavior; and an infrared sensing module comprising a casing, a circuit board, a sensor and a semispherical lens cover, wherein the casing is installed on the host and has an opening, the circuit board is disposed within the casing, the sensor is installed on the circuit board and aligned with the opening, the semispherical lens cover is rotatably mounted on the opening, and the semispherical lens cover has a lens pattern, wherein the installation surface is a wall or a ceiling, wherein when the backside of the host is installed on the wall in a wall-mounting manner, the semispherical lens cover is rotated relative to the opening to have the semispherical lens cover be in a first state, so that the sensor performs a sensing operation at a first direction angle through the lens pattern, and when the backside of the host is installed on the ceiling in a suspension manner, the semispherical lens cover is rotated relative to the opening to have the semispherical lens cover be in a second state, so that the sensor performs the sensing operation at a second direction angle through the lens pattern.
A method for producing an imager (10, 20), comprising the following steps: a. a first step of attaching an imaging sensor to a first substrate; b. a second step of cutting out the first substrate at a predefined distance around the attached imaging sensor; c. a third step of attaching a driver circuit board of the imaging sensor to the cut-out first substrate, close to the attached imaging sensor; d. a fourth step of connecting the driver circuit board of the imaging sensor to the attached imaging sensor in order to obtain a first tile associated with said first substrate of the first tile; e. repeating the first, second, third and fourth steps in order to obtain a second tile associated with said first substrate of the second tile; f. a fifth step of butting together the obtained first tile and second tile by placing the two cut-out first substrates in edge-to-edge contact; g. a sixth step of attaching the butted-together tiles (21, 22) to a main substrate; h. a seventh step of connecting the driver circuit boards of the imaging sensors of the butted-together first tile and second tile to a motherboard of the imager (10, 20). a. a first step of attaching an imaging sensor to a first substrate; b. a second step of cutting out the first substrate at a predefined distance around the attached imaging sensor; c. a third step of attaching a driver circuit board of the imaging sensor to the cut-out first substrate, close to the attached imaging sensor; d. a fourth step of connecting the driver circuit board of the imaging sensor to the attached imaging sensor in order to obtain a first tile associated with said first substrate of the first tile; e. repeating the first, second, third and fourth steps in order to obtain a second tile associated with said first substrate of the second tile; f. a fifth step of butting together the obtained first tile and second tile by placing the two cut-out first substrates in edge-to-edge contact; g. a sixth step of attaching the butted-together tiles (21, 22) to a main substrate; h. a seventh step of connecting the driver circuit boards of the imaging sensors of the butted-together first tile and second tile to a motherboard of the imager (10, 20).
Method for producing a three-dimensional preform in the course of the production of fiber-reinforced molded parts, wherein the method is carried out with a draping device comprising at least a draping mold for a woven fabric layer and draping stamps (4, 4') having contact surfaces for reshaping the preform from the woven fabric layer by means of the draping device, which draping stamps can be moved relative to the draping mold, wherein the draping stamps (4, 4') form at least one clearance with respect to each other, wherein at least one first and subsequently at least one second draping stamp (4, 4') are moved in the draping direction in order to reshape the woven fabric layer on the contact surface, wherein with or without overlap with respect to at least one contact surface of a draping stamp (4, 4'), the clearance is bridged by means of at least one independently movable or by means of an intermediate holder that is operatively connected to at least one draping stamp (4, 4'), and characterized in that the second draping stamp is moved at least partially during the movement in the draping direction in the clearance between the draping stamps (4 and 4'), wherein it is moved subsequently or simultaneously angularly or at a 90° angle to the draping direction such that it forms the woven fabric layer along the contour and leaves the clearance.
Construction for displacing a bicycle, between a first position and a second position, wherein the first position is higher than the second position, comprising a first profile and a second profile displaceable in relation to the first profile, wherein the second profile is configured to hold the bicycle and the first profile is at least partially curved and is set up with a concave side thereof pointed downwards in such a way that, due to a displacement of the second profile in a longitudinal direction in relation to the first profile, the bicycle held by the second profile is displaceable between the first position and the second position, characterised in that the first profile is curved over the entire length thereof and/or the second profile is curved over the entire length thereof.
A refrigerator oil composition comprising a mixed refrigerant and a refrigerator oil, the mixed refrigerant comprising less than 40% by mass of an unsaturated fluorinated hydrocarbon compound, HFO, on a basis of the whole amount of the mixed refrigerant, more than 40% by mass of at least one selected from the group consisting of 1,1,1,2,2-pentafluoroethane, R125, and 1,1,1,2-tetrafluoroethane, R134a, on a basis of the whole amount of the mixed refrigerant, and difluoromethane, R32, wherein the unsaturated fluorinated hydrocarbon compound, HFO, is at least one selected from the group consisting of 2,3,3,3-tetrafluoropropene, R1234yf, and 1,3,3,3-tetrafluoropropene, R1234ze, the refrigerator oil comprising a base oil including at least one selected from the group consisting of a polyvinyl ether and a polyol ester, POE, with a hydroxy value of the base oil being 15 mgKOH/g or less, measured through neutralization titration in conformity with JIS K0070:1992, and wherein the total content of at least one selected from the group consisting of PVE and POE is 50% by mass or more and 100% by mass or less of the whole amount of the base oil, and wherein the content of the base oil is 90% by mass or more and 100% by mass or less on a basis of the whole amount of the refrigerator oil. the mixed refrigerant comprising less than 40% by mass of an unsaturated fluorinated hydrocarbon compound, HFO, on a basis of the whole amount of the mixed refrigerant, more than 40% by mass of at least one selected from the group consisting of 1,1,1,2,2-pentafluoroethane, R125, and 1,1,1,2-tetrafluoroethane, R134a, on a basis of the whole amount of the mixed refrigerant, and difluoromethane, R32, wherein the unsaturated fluorinated hydrocarbon compound, HFO, is at least one selected from the group consisting of 2,3,3,3-tetrafluoropropene, R1234yf, and 1,3,3,3-tetrafluoropropene, R1234ze, the refrigerator oil comprising a base oil including at least one selected from the group consisting of a polyvinyl ether and a polyol ester, POE, with a hydroxy value of the base oil being 15 mgKOH/g or less, measured through neutralization titration in conformity with JIS K0070:1992, and wherein the total content of at least one selected from the group consisting of PVE and POE is 50% by mass or more and 100% by mass or less of the whole amount of the base oil, and wherein the content of the base oil is 90% by mass or more and 100% by mass or less on a basis of the whole amount of the refrigerator oil.
A cannula comprising: a shaft including a distal end and a proximal end and a slot configured to receive a surgical instrument, the said slot extending from the proximal end to the distal end, the shaft having a semi-circular cross-section and comprising a longitudinal axis; and a handle coupled to the proximal end of the shaft, wherein the distal end of the shaft comprises a tip, the tip including a spherical radius, whereby the spherical radius curves towards the longitudinal axis and characterised in that the spherical radius is truncated by its intersection with a cut-off angle of 20 degrees, and wherein the tip includes an edge with a radius. a shaft including a distal end and a proximal end and a slot configured to receive a surgical instrument, the said slot extending from the proximal end to the distal end, the shaft having a semi-circular cross-section and comprising a longitudinal axis; and a handle coupled to the proximal end of the shaft, wherein the distal end of the shaft comprises a tip, the tip including a spherical radius, whereby the spherical radius curves towards the longitudinal axis and characterised in that the spherical radius is truncated by its intersection with a cut-off angle of 20 degrees, and wherein the tip includes an edge with a radius.
A method for forming a PZT ferroelectric film, wherein the method comprises: a step of applying a liquid composition for forming a PZT ferroelectric film; a step of drying the film applied with the liquid composition; a step of irradiating UV rays onto the dried film at a temperature of 150 to 200°C for 5 to 15 minutes in an oxygen-containing atmosphere; and after the application step, the drying step, and the UV irradiation step once, or more times, a step of firing for crystallizing a precursor film of the UV-irradiated ferroelectric film by raising a temperature with a temperature rising rate of 0.5°C/second or higher in an oxygen-containing atmosphere or by raising a temperature with a temperature rising rate of 0.2°C/second or higher in a non-oxygen containing atmosphere, followed by keeping the temperature at 400 to 500°C for a period of 5 to 60 minutes; and further, an amount of the liquid composition in each application is set such that thickness of the ferroelectric film be 150 nm or more for each application and ozone is supplied during the UV irradiation. a step of applying a liquid composition for forming a PZT ferroelectric film; a step of drying the film applied with the liquid composition; a step of irradiating UV rays onto the dried film at a temperature of 150 to 200°C for 5 to 15 minutes in an oxygen-containing atmosphere; and after the application step, the drying step, and the UV irradiation step once, or more times, a step of firing for crystallizing a precursor film of the UV-irradiated ferroelectric film by raising a temperature with a temperature rising rate of 0.5°C/second or higher in an oxygen-containing atmosphere or by raising a temperature with a temperature rising rate of 0.2°C/second or higher in a non-oxygen containing atmosphere, followed by keeping the temperature at 400 to 500°C for a period of 5 to 60 minutes; and further, an amount of the liquid composition in each application is set such that thickness of the ferroelectric film be 150 nm or more for each application and ozone is supplied during the UV irradiation.
A liquid toner or toner concentrate comprising a mixture of: pigmented toner particles in an amount of 0.5% to 20% by weight; a charge director; and a carrier liquid comprising a liquid hydrocarbon and a silicone additive, wherein the silicone additive comprises a release life enhancer additive chosen from the group consisting of: a liquid silicone material being a polydimethylsiloxane fluid and having a viscosity at 25°C of above 0.25 m 2 /s (250,000 centistokes) and a molecular weight of 50,000 or above; a silicone gum; and an alkyl-modified non-reactive silicone fluid having a viscosity of 0.0005 m 2 /s (500 centistokes) present in a ratio of between 0.01% and 2% by weight to carrier liquid. pigmented toner particles in an amount of 0.5% to 20% by weight; a charge director; and a carrier liquid comprising a liquid hydrocarbon and a silicone additive, wherein the silicone additive comprises a release life enhancer additive chosen from the group consisting of: a liquid silicone material being a polydimethylsiloxane fluid and having a viscosity at 25°C of above 0.25 m 2 /s (250,000 centistokes) and a molecular weight of 50,000 or above; a silicone gum; and an alkyl-modified non-reactive silicone fluid having a viscosity of 0.0005 m 2 /s (500 centistokes) present in a ratio of between 0.01% and 2% by weight to carrier liquid. a liquid silicone material being a polydimethylsiloxane fluid and having a viscosity at 25°C of above 0.25 m 2 /s (250,000 centistokes) and a molecular weight of 50,000 or above; a silicone gum; and an alkyl-modified non-reactive silicone fluid having a viscosity of 0.0005 m 2 /s (500 centistokes) present in a ratio of between 0.01% and 2% by weight to carrier liquid.
A data transmission method, comprising: sending, by a base station, first data and random access information to a user equipment UE simultaneously, wherein the UE is in a state of uplink out of sync, wherein the first data is data of a data radio bearer, DRB, or data of a signaling radio bearer, SRB, and wherein the random access information comprises at least one of a dedicated preamble and physical random access channel, PRACH, resource information; and acquiring, by the base station, receiving state information of the first data, wherein the receiving state information is fed back by the UE through the random access information. sending, by a base station, first data and random access information to a user equipment UE simultaneously, wherein the UE is in a state of uplink out of sync, wherein the first data is data of a data radio bearer, DRB, or data of a signaling radio bearer, SRB, and wherein the random access information comprises at least one of a dedicated preamble and physical random access channel, PRACH, resource information; and acquiring, by the base station, receiving state information of the first data, wherein the receiving state information is fed back by the UE through the random access information.
A method comprising: capturing, over a predetermined period of time, by one or more optical sensors (124; 316) attached to an unmanned aerial vehicle (114; 212; 502; 614, 620; 706, 708, 710), sensor data representing images of an airspace surrounding the UAV (114; 212; 502; 614, 620; 706, 708, 710) (step 902); detecting, in the sensor data, information representative of a plurality of lights of a flying object (step 904); determining an estimated distance between the UAV (114; 212; 502; 614, 620; 706, 708, 710) and the flying object using range-finding techniques; determining one or more characteristic features of the plurality of lights based on the sensor data and the estimated distance between the UAV (114; 212; 502; 614, 620; 706, 708, 710) and the flying object (step 906); identifying, using a characteristic feature database, the flying object based on the one or more characteristic features of the plurality of lights (step 908); determining an estimated airspeed of the flying object based on the sensor data (step 916); and determining a trajectory envelope of the flying object based on performance parameters associated with the identified flying object and the estimated airspeed of the flying object (step 918). capturing, over a predetermined period of time, by one or more optical sensors (124; 316) attached to an unmanned aerial vehicle (114; 212; 502; 614, 620; 706, 708, 710), sensor data representing images of an airspace surrounding the UAV (114; 212; 502; 614, 620; 706, 708, 710) (step 902); detecting, in the sensor data, information representative of a plurality of lights of a flying object (step 904); determining an estimated distance between the UAV (114; 212; 502; 614, 620; 706, 708, 710) and the flying object using range-finding techniques; determining one or more characteristic features of the plurality of lights based on the sensor data and the estimated distance between the UAV (114; 212; 502; 614, 620; 706, 708, 710) and the flying object (step 906); identifying, using a characteristic feature database, the flying object based on the one or more characteristic features of the plurality of lights (step 908); determining an estimated airspeed of the flying object based on the sensor data (step 916); and determining a trajectory envelope of the flying object based on performance parameters associated with the identified flying object and the estimated airspeed of the flying object (step 918).