mhurhangee/ep-ind-claims huggingface dataset:
An information processing apparatus, comprising: a display screen, and a processor configured to: receive an electronic document, notification information for prompting a user to execute a process related to the electronic document, and a process content information from a server; start a document application and display the electronic document; the information processing apparatus being characterized in that the processor is further configured to: in a case where the user operates a notification message displayed on the display screen based on the notification information, perform highlighted display of an operation button for executing an expected process on the display screen based on the process content information indicating a content of the expected process expected to be executed on the electronic document, wherein the content of the expected process is decided in accordance with a folder that stores the electronic document in the server; and execute the process related to the electronic document in accordance with the operation button operated by the user. a display screen, and a processor configured to: receive an electronic document, notification information for prompting a user to execute a process related to the electronic document, and a process content information from a server; start a document application and display the electronic document; the information processing apparatus being characterized in that the processor is further configured to: in a case where the user operates a notification message displayed on the display screen based on the notification information, perform highlighted display of an operation button for executing an expected process on the display screen based on the process content information indicating a content of the expected process expected to be executed on the electronic document, wherein the content of the expected process is decided in accordance with a folder that stores the electronic document in the server; and execute the process related to the electronic document in accordance with the operation button operated by the user. receive an electronic document, notification information for prompting a user to execute a process related to the electronic document, and a process content information from a server; start a document application and display the electronic document; the information processing apparatus being characterized in that the processor is further configured to: in a case where the user operates a notification message displayed on the display screen based on the notification information, perform highlighted display of an operation button for executing an expected process on the display screen based on the process content information indicating a content of the expected process expected to be executed on the electronic document, wherein the content of the expected process is decided in accordance with a folder that stores the electronic document in the server; and execute the process related to the electronic document in accordance with the operation button operated by the user.
Air intake for a heating, ventilating and/or air conditioning unit, said air intake comprising an air flow channel and a fluid circulation housing so that air flowing through said air flow channel further flows through said 2. fluid circulation housing, said fluid circulation housing being configured to measure particles in said air said air intake further comprising an interface, configured to drive the air between said air flow channel and said fluid circulation housing, and an actuator system fixed on a first lateral side of said air flow channel and located externally from said air flow channel, characterised by, said interface being configured to support said I fluid circulation housing with a lever arm so that said fluid circulation housing is located beyond said actuator system relative to said air flow channel.
Device for turning over an object, in particular a package of stacked bags, comprising: - a holding device for receiving, turning over and delivering the object and comprising two transport elements (21a, 21b) for conveying the object, and a rotating device for rotating the transport elements (21a, 21b) about a fixed axis of rotation and comprising a rotatable frame for holding both sides of the transport elements (21a, 21b), - wherein the transport elements (21a, 21b) are movably mounted on both sides of the frame, and are movable towards each other in a clamping direction in order to clamp the object to be turned over, - wherein the rotating device comprises a rotary drive which drives the frame on both sides, characterized in that the rotating device has a shock absorber to damp the movement of the transport elements (21a, 21b) towards each other, and in that the shock absorber is secured to the frame in a rotationally fixed manner. - a holding device for receiving, turning over and delivering the object and comprising two transport elements (21a, 21b) for conveying the object, and a rotating device for rotating the transport elements (21a, 21b) about a fixed axis of rotation and comprising a rotatable frame for holding both sides of the transport elements (21a, 21b), - wherein the transport elements (21a, 21b) are movably mounted on both sides of the frame, and are movable towards each other in a clamping direction in order to clamp the object to be turned over, - wherein the rotating device comprises a rotary drive which drives the frame on both sides,
A method suitable for testing at an abattoir, for quantifying or simultaneously quantifying, the amounts of a compound selected from skatole and/or androstenone in a sample of animal fat tissue, said method comprising the subsequent steps of: a. providing a sample of the animal fat tissue; b. adding brine and an organic polar solvent, and at least one internal standard, to the sample of step a; c. extracting the compound(s) in question from the sample of step a to obtain a precipitate and an upper fraction, said upper fraction comprising the compound(s) in question; d. drying the separated upper phase layer of the mixture of step c to obtain a dried extract; e. desorbing the compound(s) of the dried extract obtained in step d, by volatilizing by Laser Diode Thermal Desorption (LDTD); and f. quantifying the desorbed and vaporized compound(s) of step e by Mass Spectrometry. a. providing a sample of the animal fat tissue; b. adding brine and an organic polar solvent, and at least one internal standard, to the sample of step a; c. extracting the compound(s) in question from the sample of step a to obtain a precipitate and an upper fraction, said upper fraction comprising the compound(s) in question; d. drying the separated upper phase layer of the mixture of step c to obtain a dried extract; e. desorbing the compound(s) of the dried extract obtained in step d, by volatilizing by Laser Diode Thermal Desorption (LDTD); and f. quantifying the desorbed and vaporized compound(s) of step e by Mass Spectrometry.
A French model or Belgian model bridge (1,2) for a violin family, characterized in that it is made of ram horn to provide a high qualified and archaized sound.
A polyester film comprising at least one layer mainly including a polyester resin containing a dicarboxylic acid component including furandicarboxylic acid as a main component and a glycol component including ethylene glycol as a main component; wherein the polyester film has a plane orientation coefficient ΔP of not less than 0.100 and not more than 0.200, wherein the plane orientation coefficient (ΔP) is calculated out in accordance with the equation ΔP = nx + ny - 2 nz / 2, wherein nx is the n-plane refractive index of the film in the MD direction, ny is the in-plane refractive index of the film in the TD direction, and nz is the refractive index of the film in the thickness direction, wherein nx, ny and nz are determined in accordance with JIS K 7142-1996 5.1 (method A); wherein the polyester film has a thickness of not less than 1 μm and not more than 300 μm; wherein the polyester film has a heat shrinkage rate of 3.2% or less in each of the MD direction and the TD direction at 150°C for 30 minutes, wherein the heat shrinkage rate is determined according to the method indicated in the description; and wherein the polyester film has a layer containing at least one additive. wherein the polyester film has a plane orientation coefficient ΔP of not less than 0.100 and not more than 0.200, wherein the plane orientation coefficient (ΔP) is calculated out in accordance with the equation ΔP = nx + ny - 2 nz / 2, wherein nx is the n-plane refractive index of the film in the MD direction, ny is the in-plane refractive index of the film in the TD direction, and nz is the refractive index of the film in the thickness direction, wherein nx, ny and nz are determined in accordance with JIS K 7142-1996 5.1 (method A); wherein the polyester film has a thickness of not less than 1 μm and not more than 300 μm; wherein the polyester film has a heat shrinkage rate of 3.2% or less in each of the MD direction and the TD direction at 150°C for 30 minutes, wherein the heat shrinkage rate is determined according to the method indicated in the description; and wherein the polyester film has a layer containing at least one additive.
A branch pipe comprising: an inflow portion, a first outflow portion (1; 1',3) and a second outflow portion, for branching fluid from the inflow portion into the first outflow portion (1; 1',3) and the second outflow portion, wherein the inflow portion has an inlet and an axis, the first outflow portion (1; 1',3) comprises an inlet section having an axis, a middle portion (1B, 3B) and an outlet section with an outlet having an axis the middle portion of the first outflow portion (1; 1',3) being bent so that the axis of the first outlet section is aligned with the axis of the inflow portion, the second outflow portion has an outlet and an axis the inlet of the inflow portion and the outlet of the first outflow portion (1; 1', 3) communicate with each other, the inlet of the inflow portion and the outlet of the second outflow portion communicate with each other, and wherein an angle (A') formed between the axis of the inflow portion and the axis of the inlet section of the first outflow portion (1; 1',3) is 45 degrees, characterized in that an angle formed between the axis of the inflow portion and the axis of the second outflow portion is 45 degrees. an inflow portion, a first outflow portion (1; 1',3) and a second outflow portion, for branching fluid from the inflow portion into the first outflow portion (1; 1',3) and the second outflow portion, wherein the inflow portion has an inlet and an axis, the first outflow portion (1; 1',3) comprises an inlet section having an axis, a middle portion (1B, 3B) and an outlet section with an outlet having an axis the middle portion of the first outflow portion (1; 1',3) being bent so that the axis of the first outlet section is aligned with the axis of the inflow portion, the second outflow portion has an outlet and an axis the inlet of the inflow portion and the outlet of the first outflow portion (1; 1', 3) communicate with each other, the second outflow portion has an outlet and an axis the inlet of the inflow portion and the outlet of the first outflow portion (1; 1', 3) communicate with each other, the inlet of the inflow portion and the outlet of the second outflow portion communicate with each other, and wherein an angle (A') formed between the axis of the inflow portion and the axis of the inlet section of the first outflow portion (1; 1',3) is 45 degrees, characterized in that an angle formed between the axis of the inflow portion and the axis of the second outflow portion is 45 degrees.
A scoring catheter for insertion into a blood vessel, the scoring catheter comprising: a catheter body having a proximal and a distal end; a radially expansible shell near the distal end of the catheter body; and, carried over this shell, a non-axial scoring structure arranged to score stenotic material in a non-axial direction by cutting radially into the stenotic material as the shell is expanded, wherein the non-axial scoring structure is elastic and arranged to radially expand as the shell expands and collapse as the shell collapses. a catheter body having a proximal and a distal end; a radially expansible shell near the distal end of the catheter body; and, carried over this shell, a non-axial scoring structure arranged to score stenotic material in a non-axial direction by cutting radially into the stenotic material as the shell is expanded, wherein the non-axial scoring structure is elastic and arranged to radially expand as the shell expands and collapse as the shell collapses.
A method of receiving, storing and picking articles comprising the following steps in order: - receiving items at a receiving station, - transfer of a first article to an upstream lift, then to a first horizontal conveyor on which at least one second article is previously stored, said first conveyor being capable of transferring articles from said upstream lift to a downstream lift, - transferring said at least one second item to said downstream lift, then to a second horizontal conveyor located above or below said first conveyor and capable of transferring items from said downstream lift to said upstream lift, - transferring said first item to said downstream lift, then to a picking station, characterized in that at least two articles have different dimensions, said method comprising a step of measuring at least one dimension of all or some of the articles, a controller taking this measurement into account in order to determine during the transfer step from the receiving station to a conveyor (6, 9, 12) the space allocated to each article measured on said conveyor (6, 9, 12) to which it is transferred. - receiving items at a receiving station, - transfer of a first article to an upstream lift, then to a first horizontal conveyor on which at least one second article is previously stored, said first conveyor being capable of transferring articles from said upstream lift to a downstream lift, - transferring said at least one second item to said downstream lift, then to a second horizontal conveyor located above or below said first conveyor and capable of transferring items from said downstream lift to said upstream lift, - transferring said first item to said downstream lift, then to a picking station,
Heat shield for a turbocharger, which can be arranged between a bearing housing and a turbine casing of the turbocharger, - wherein the heat shield is in the shape of a disc or a pot shape having one or more steps, - wherein the disc or the pot shape has an outer rim which lies in a plane arranged perpendicular to the central axis of the disc or pot shape, characterized - in that the outer rim is provided with at least one cutout section arranged in the circumferential direction, and - in that the respective cutout section forms, with the outer rim, a web section running in the circumferential direction, and the web section is curved in the axial direction in the manner of a wave spring in order to form a spring arm with an axial spring travel. - wherein the heat shield is in the shape of a disc or a pot shape having one or more steps, - wherein the disc or the pot shape has an outer rim which lies in a plane arranged perpendicular to the central axis of the disc or pot shape, characterized - in that the outer rim is provided with at least one cutout section arranged in the circumferential direction, and - in that the respective cutout section forms, with the outer rim, a web section running in the circumferential direction, and the web section is curved in the axial direction in the manner of a wave spring in order to form a spring arm with an axial spring travel.
An apparatus for cutting a sample piece, having a shape and an outer dimension, out of a porous substrate, comprising: a puncher having an outermost dimension at a punch head; a stripping sleeve (14;60); a die having an innermost dimension that is larger than the outermost dimension of the punch head, characterized in that said apparatus further comprises: one or more guides and one or more channels corresponding to the guides; a fixture that holds the die in a fixed position relative to the puncher and stripping sleeve (14;60), and which comprises a pillar in which the puncher is seated and that comprises a seat for the guides, while the channels are located on the stripping sleeve, wherein the channels engage the guides and wherein the channels together with the guides allow the stripping sleeve to move in a vertical direction to an extent that is determined by the length of the channels; and a ball bearing cage through which the pillar can move, and a roller sleeve, which is fixed to the fixture and which supports the cage, wherein the stripping sleeve (14;60) has a stripping head (36;64) that substantially corresponds to the shape and outer dimension of the punch head, although the stripping head is larger than both the punch head and the sample piece and is adapted to hold the porous substrate against a surface of the die, while the puncher punches a piece out of the substrate, through the die and into a receptacle and while the puncher is retracted from the subsequent hole in the substrate. a puncher having an outermost dimension at a punch head; a stripping sleeve (14;60); a die having an innermost dimension that is larger than the outermost dimension of the punch head, one or more guides and one or more channels corresponding to the guides; a fixture that holds the die in a fixed position relative to the puncher and stripping sleeve (14;60), and which comprises a pillar in which the puncher is seated and that comprises a seat for the guides, while the channels are located on the stripping sleeve, wherein the channels engage the guides and wherein the channels together with the guides allow the stripping sleeve to move in a vertical direction to an extent that is determined by the length of the channels; and a ball bearing cage through which the pillar can move, and a roller sleeve, which is fixed to the fixture and which supports the cage,
A method of determining the optimal Tacking Time to Destination by comparing tacking distances and speeds for a sailboat from a current position to a destination position for different possible courses to minimize the TTD, said method including: a) estimating distances from a current position to a destination entailed by tacking for different possible courses based on the following functions for the tacking legs Leg 1 = D * sin(α+ω)/sin(π-2α) during tack 1 and Leg 2 = D * sin(α-ω)/sin(π-2α) wherein D is the distance from the current position to the target straight along the rhumb line, α represents the heading angle (away from the bearing to the destination) and ω stands for the angle between the wind direction and the rhumb line; b) estimating boat speed on tacking legs from a current position to a destination position for different possible courses based on data in polar plots or look up tables as a function of wind speed, wind direction and hullspeed; c) estimating Tacking Time to Destination by dividing the distance on each leg by the speed on that leg, with the sum of the resulting quotients giving the overall Tacking Time to Destination for different possible courses; d) assessing the optimal course to minimize the Tacking Time to Destination by determining a distance and speed for each of the different possible courses and finding the course with the shortest Tacking Time to destination. a) estimating distances from a current position to a destination entailed by tacking for different possible courses based on the following functions for the tacking legs Leg 1 = D * sin(α+ω)/sin(π-2α) during tack 1 and Leg 2 = D * sin(α-ω)/sin(π-2α) wherein D is the distance from the current position to the target straight along the rhumb line, α represents the heading angle (away from the bearing to the destination) and ω stands for the angle between the wind direction and the rhumb line; b) estimating boat speed on tacking legs from a current position to a destination position for different possible courses based on data in polar plots or look up tables as a function of wind speed, wind direction and hullspeed; c) estimating Tacking Time to Destination by dividing the distance on each leg by the speed on that leg, with the sum of the resulting quotients giving the overall Tacking Time to Destination for different possible courses; d) assessing the optimal course to minimize the Tacking Time to Destination by determining a distance and speed for each of the different possible courses and finding the course with the shortest Tacking Time to destination.
A pump, in particular a vacuum pump, comprising a rotor which is rotatable about an axis of rotation and which has a setting region for at least one balancing weight, wherein, in the setting region, the spacing of the balancing weight from the axis of rotation is set to a target spacing of a plurality of target spacings provided at the rotor, and wherein the balancing weight brings about a desired balancing state at the set target spacing; wherein at least one channel is formed in the rotor, with the balancing weight being arranged in the channel and the setting region extending over at least a part of the channel; and wherein a tensioning device (11, 13) is arranged in the channel, characterized in that the tensioning device (11, 13) is an elastic element such as a spring or an elastomer.
Cladding system with a supporting device and a heating and/or cooling device, in which an air-conditioning pipe is fixed in a heat-conducting profile which can be fastened to a wall or a ceiling via the supporting device, and the heat-conducting profile is designed as an extruded aluminum profile with an approximately omega-shaped receptacle for the air-conditioning pipe, the approximately omega-shaped receptacle having a spring groove, characterized in that the spring groove lies in an axis of symmetry of the approximately omega-shaped receptacle, so that equally resilient arms are created on the approximately omega-shaped receptacle, thereby facilitating the insertion of an air-conditioning tube and improving its permanent fixing in the heat-conducting profile. and the heat-conducting profile is designed as an extruded aluminum profile with an approximately omega-shaped receptacle for the air-conditioning pipe, the approximately omega-shaped receptacle having a spring groove, characterized in that the spring groove lies in an axis of symmetry of the approximately omega-shaped receptacle, so that equally resilient arms are created on the approximately omega-shaped receptacle, thereby facilitating the insertion of an air-conditioning tube and improving its permanent fixing in the heat-conducting profile.