mhurhangee/ep-ind-claims huggingface dataset:
A bucket configured to be used with aircraft storage bin, wherein the bucket comprises: a bottom that includes a lower surface, an upper surface and right and left outer edges (20c, 20d), a right side panel that includes a first section having a first transverse width and a second section having a second transverse width, wherein a transition section is located between the first and second sections (24, 26) of the right side panel, wherein the second transverse width of the right side panel is less than the first transverse width of the right side panel, wherein at least a portion of the second section of the right side panel is received in a right side slot defined in the upper surface of the bottom of the bucket, such that the right side panel extends upwardly from the bottom, and a left side panel that includes a first section having a first transverse width and a second section having a second transverse width, wherein a transition section is located between the first and second sections (24, 26) of the left side panel, wherein the second transverse width of the left side panel is less than the first transverse width of the left side panel, wherein at least a portion of the second section of the left side panel is received in a left side slot defined in the upper surface of the bottom of the bucket, such that the left side panel extends upwardly from the bottom. a bottom that includes a lower surface, an upper surface and right and left outer edges (20c, 20d), a right side panel that includes a first section having a first transverse width and a second section having a second transverse width, wherein a transition section is located between the first and second sections (24, 26) of the right side panel, wherein the second transverse width of the right side panel is less than the first transverse width of the right side panel, wherein at least a portion of the second section of the right side panel is received in a right side slot defined in the upper surface of the bottom of the bucket, such that the right side panel extends upwardly from the bottom, and a left side panel that includes a first section having a first transverse width and a second section having a second transverse width, wherein a transition section is located between the first and second sections (24, 26) of the left side panel, wherein the second transverse width of the left side panel is less than the first transverse width of the left side panel, wherein at least a portion of the second section of the left side panel is received in a left side slot defined in the upper surface of the bottom of the bucket, such that the left side panel extends upwardly from the bottom.
A method for providing sorting information for postal items, such as letters, brochures, parcels and the like, each postal item (2, 2a, 2b, 2c) comprising an address information, said method comprising the steps of: a) providing an overhead positioned camera; said camera being capable of taking images of the postal items (2, 2a, 2b); b) providing an image recognition means in order to extract the address information from the postal item (2, 2a, 2b); c) providing a process control being enabled to assign the sorting information to the postal item (2, 2a, 2b) in response to the extracted address information; d) forming a stack of postal items (2, 2a, 2b) wherein the postal items (2, 2a, 2b) are oriented to allow reading the respective address information from the overhead positioned camera wherein the stack of postal items (2, 2a, 2b) is positioned in a determined area of view with respect to the camera; e) disposing at least one optical mark adjacent to the determined area of view; f) removing the postal item on top of the stack and occlude the at least one optical mark temporarily for the camera during the movement for removing; g) detecting that the at least one optical mark has been occluded temporarily by an evaluation of the images taken by the camera; and h) in response to the detection deducting that the successive postal item is now present on the top of the stack, taking a new image of the successive postal item and extracting the address information from this new image and assigning the respective sorting information to the successive postal item. a) providing an overhead positioned camera; said camera being capable of taking images of the postal items (2, 2a, 2b); b) providing an image recognition means in order to extract the address information from the postal item (2, 2a, 2b); c) providing a process control being enabled to assign the sorting information to the postal item (2, 2a, 2b) in response to the extracted address information; d) forming a stack of postal items (2, 2a, 2b) wherein the postal items (2, 2a, 2b) are oriented to allow reading the respective address information from the overhead positioned camera wherein the stack of postal items (2, 2a, 2b) is positioned in a determined area of view with respect to the camera; e) disposing at least one optical mark adjacent to the determined area of view; f) removing the postal item on top of the stack and occlude the at least one optical mark temporarily for the camera during the movement for removing; g) detecting that the at least one optical mark has been occluded temporarily by an evaluation of the images taken by the camera; and h) in response to the detection deducting that the successive postal item is now present on the top of the stack, taking a new image of the successive postal item and extracting the address information from this new image and assigning the respective sorting information to the successive postal item.
An apparatus comprising: a microfluidic passage; a chamber comprising a first nozzle, a second nozzle, a first fluid driver, and a second fluid driver; an inlet connecting the microfluidic passage to the chamber; wherein the first fluid driver is arranged to move fluid through the first nozzle to draw fluid across the inlet; wherein the second fluid driver is arranged to move fluid through the second nozzle to draw fluid across the inlet; and a controller to actuate the first fluid driver and the second fluid driver; wherein the nozzles (36A, 36B) are adjacent to one another and are connected to the chamber, each nozzle (36A, 36B) comprising an opening through which fluid within the chamber can be ejected; characterized in that the controller is arranged to sequentially actuate the first fluid driver and the second fluid driver; and a sensor, proximate to the inlet, arranged to sense fluid within the inlet. a microfluidic passage; a chamber comprising a first nozzle, a second nozzle, a first fluid driver, and a second fluid driver; an inlet connecting the microfluidic passage to the chamber; wherein the first fluid driver is arranged to move fluid through the first nozzle to draw fluid across the inlet; wherein the second fluid driver is arranged to move fluid through the second nozzle to draw fluid across the inlet; and a controller to actuate the first fluid driver and the second fluid driver; wherein the nozzles (36A, 36B) are adjacent to one another and are connected to the chamber, each nozzle (36A, 36B) comprising an opening through which fluid within the chamber can be ejected; characterized in that the controller is arranged to sequentially actuate the first fluid driver and the second fluid driver; and a sensor, proximate to the inlet, arranged to sense fluid within the inlet.
Method for holding down a sheet on the feed table of a machine for processing sheets, the machine comprising a smoothing bar disposed above the feed table and lowerable in the direction of the feed table, wherein the lowering movement of the smoothing bar occurs in accordance with a predefinable velocity profile, and wherein the smoothing bar is caused to vibrate, said vibration superimposed to a kinematic movement in accordance with the cycle of the machine for processing sheets, characterized in that the velocity profile is such that immediately before reaching the end position of the lowering movement (H 2), the centre of the smoothing bar overshoots just enough for the centre of the smoothing bar to reach the end position before the ends of the smoothing bar reach their end positions.
A convex shell for use in a base plate of an ostomy appliance, the convex shell comprising an annular ring defined by an outer edge and an inner edge defining a through-going hole, said ring having a higher flexibility around a first axis which is perpendicular to the centre axis C - C of the through-going hole relative to the flexibility around a second axis having an angle to the first axis and being perpendicular to the centre axis C - C of the through-going hole, characterized in that the convex shell comprises an outer planar surface extending in a first plane perpendicular to the centre axis C - C of the through-going hole, the outer planar surface extending radially inwards from the outer edge and transitioning into an intermediate slanting surface, where the intermediate slanting surface extends radially inwards from the outer planar surface towards an inner planar surface, where the inner planar surface extends in a second plane perpendicular to the centre axis C - C of the through-going hole and extends radially from the intermediate slanting surface towards the inner edge defining the through-going hole.
A biomedical electrode structure comprising: a contact member having a tissue interfacing face for contacting a tissue surface, and an opposite electrical coupling face; a first electrically conductive surface disposed within said tissue interfacing face, and being configured to electrically couple to a portion of the contacted tissue; at least two electrical connectors mounted in a spaced apart relationship on said electrical coupling face, wherein each of said at least two electrical connectors is electrically coupled to a different region of said first electrically conductive surface for allowing measurement of at least one electrical property of at least a portion of said first electrically conductive surface, said portion of the first electrically conductive surface residing between said at least two electrical connectors; a second electrically conductive surface disposed on the tissue interfacing face and being spaced apart from the first electrically conductive surface, said additional second electrically conductive surface being configured to contact a different portion of the contacted tissue; and at least one additional electric connector electrically coupled to said second electrically conductive surface, wherein said second electrically conductive surface is configured and operable to sense electric signal propagating in the contacted tissue in response to electric signals applied by the first electrically conductive surface. a contact member having a tissue interfacing face for contacting a tissue surface, and an opposite electrical coupling face; a first electrically conductive surface disposed within said tissue interfacing face, and being configured to electrically couple to a portion of the contacted tissue; at least two electrical connectors mounted in a spaced apart relationship on said electrical coupling face, wherein each of said at least two electrical connectors is electrically coupled to a different region of said first electrically conductive surface for allowing measurement of at least one electrical property of at least a portion of said first electrically conductive surface, said portion of the first electrically conductive surface residing between said at least two electrical connectors; a second electrically conductive surface disposed on the tissue interfacing face and being spaced apart from the first electrically conductive surface, said additional second electrically conductive surface being configured to contact a different portion of the contacted tissue; and at least one additional electric connector electrically coupled to said second electrically conductive surface, wherein said second electrically conductive surface is configured and operable to sense electric signal propagating in the contacted tissue in response to electric signals applied by the first electrically conductive surface.
A pressure regulating module for controlling a fluid supply line pressure comprising: a) a housing including a fluid inlet, a control fluid outlet to said fluid supply line, a reference fluid port, and at least a portion of the housing having an inner circumferential surface defining an axially extending cylinder bore, said cylinder bore being fluidly coupled to the fluid inlet on a first side of the housing and fluidly coupled to the reference fluid port on a second side of the housing; b) a pressure transfer assembly including a piston linked to a restricting element (60, 62, 64, 66, 68) that controls the flow of fluid from the fluid inlet to the control fluid outlet; said piston slidably disposed within the cylinder bore, said piston comprising a main body having a first face in communication with a control fluid chamber, a second face in communication with a reference fluid chamber, and a cylindrical outer side wall; said piston dimensioned to provide a predefined radial clearance between at least a portion of said outer side wall and said inner circumferential surface of the housing along a predefined axial length (52, 152) of said main body; c) a fluid leak orifice (28, 30) extending from said inner circumferential surface of said housing to an exterior surface of said housing between said reference fluid chamber and said control fluid chamber; wherein said predefined radial clearance and predefined axial length (52, 152) are dimensioned to control the flow rate of fluid along a fluid communication passage formed between at least a portion of said piston and said inner circumferential surface from a high pressure fluid zone to a lower pressure fluid zone. a) a housing including a fluid inlet, a control fluid outlet to said fluid supply line, a reference fluid port, and at least a portion of the housing having an inner circumferential surface defining an axially extending cylinder bore, said cylinder bore being fluidly coupled to the fluid inlet on a first side of the housing and fluidly coupled to the reference fluid port on a second side of the housing; b) a pressure transfer assembly including a piston linked to a restricting element (60, 62, 64, 66, 68) that controls the flow of fluid from the fluid inlet to the control fluid outlet; said piston slidably disposed within the cylinder bore, said piston comprising a main body having a first face in communication with a control fluid chamber, a second face in communication with a reference fluid chamber, and a cylindrical outer side wall; said piston dimensioned to provide a predefined radial clearance between at least a portion of said outer side wall and said inner circumferential surface of the housing along a predefined axial length (52, 152) of said main body; c) a fluid leak orifice (28, 30) extending from said inner circumferential surface of said housing to an exterior surface of said housing between said reference fluid chamber and said control fluid chamber;
A spectrometer comprising: a light filter (200; 300; 400; 500; 600; 700; 800; 900; 1000) comprising a plurality of spectrum modulation portions (210, 220, 230; 310, 320, 330; 410, 420, 430; 510, 520, 530; 610, 620, 630; 710, 720, 730; 810, 820, 830; 910, 920, 930; 1010, 1020, 1030); and a sensing unit configured to receive light transmitted through the light filter, wherein each spectrum modulation portion of the light filter has a transmittance spectrum different from a transmittance spectrum of any other spectrum modulation portion of the light filter; wherein the transmittance spectrum of each spectrum modulation portion of the light filter does not intersect with the transmittance spectrum of any other spectrum modulation portion of the light filter over the full wavelength range measured by the spectrometer; and wherein the transmittance spectrum of each spectrum modulation portion of the light filter is not parallel to the transmittance spectrum of any other spectrum modulation portion of the light filter over the full wavelength range measured by the spectrometer. a light filter (200; 300; 400; 500; 600; 700; 800; 900; 1000) comprising a plurality of spectrum modulation portions (210, 220, 230; 310, 320, 330; 410, 420, 430; 510, 520, 530; 610, 620, 630; 710, 720, 730; 810, 820, 830; 910, 920, 930; 1010, 1020, 1030); and a sensing unit configured to receive light transmitted through the light filter, wherein each spectrum modulation portion of the light filter has a transmittance spectrum different from a transmittance spectrum of any other spectrum modulation portion of the light filter; wherein the transmittance spectrum of each spectrum modulation portion of the light filter does not intersect with the transmittance spectrum of any other spectrum modulation portion of the light filter over the full wavelength range measured by the spectrometer; and wherein the transmittance spectrum of each spectrum modulation portion of the light filter is not parallel to the transmittance spectrum of any other spectrum modulation portion of the light filter over the full wavelength range measured by the spectrometer.
Method for selecting a driving manoeuvre to be carried out by a vehicle driving in an at least partially automated manner, comprising the following steps: • a representation of the situation in which the vehicle is located is created using measurement data from at least one sensor carried by the vehicle; • the representation of the situation is mapped by a trained machine learning model to a probability distribution which indicates, for each driving manoeuvre (3a-3f) from a predefined catalogue of available driving manoeuvres (3a-3f), a probability (2a-2f) with which this driving manoeuvre (3a-3f) is carried out; • a driving manoeuvre (3a-3f) is drawn from the probability distribution (2, 2') as the driving manoeuvre to be carried out; • wherein, using at least one aspect of the situation in which the vehicle is located, a subset of driving manoeuvres (3a*-3f*) that are impermissible in this situation is additionally determined (130, 160), and • wherein the performance of these impermissible driving manoeuvres (3a*-3f*) is suppressed (140, 170), characterized in that the performance is suppressed by setting the probability (2a-2f) of this driving manoeuvre (3a*-3f*) being carried out to zero in the probability distribution, such that a changed probability distribution is generated. • a representation of the situation in which the vehicle is located is created using measurement data from at least one sensor carried by the vehicle; • the representation of the situation is mapped by a trained machine learning model to a probability distribution which indicates, for each driving manoeuvre (3a-3f) from a predefined catalogue of available driving manoeuvres (3a-3f), a probability (2a-2f) with which this driving manoeuvre (3a-3f) is carried out; • a driving manoeuvre (3a-3f) is drawn from the probability distribution (2, 2') as the driving manoeuvre to be carried out; • wherein, using at least one aspect of the situation in which the vehicle is located, a subset of driving manoeuvres (3a*-3f*) that are impermissible in this situation is additionally determined (130, 160), and • wherein the performance of these impermissible driving manoeuvres (3a*-3f*) is suppressed (140, 170),
An arrangement of a heater and a housing, in particular for a heating or air-conditioning system in a motor vehicle, with a plurality of electrically operated heating elements which serve the heating of a fluid flow, wherein the respective heating element is connected to a voltage source in an electrically conducting manner, and has live regions, wherein an electrically insulating layer is provided which is formed as a housing and covers the live regions of the heating elements as completely as possible, wherein the housing has an opening at one of its end regions through which the heater can be introduced into the housing and the housing is embodied in several parts and can be divided for placing the heater, characterised in that the housing is formed by a rectangular frame-like limitation and a grid-like structure which runs between the limitation, wherein the grid-like structure (18, 19) is formed by several struts (3, 4, 13, 14) which run perpendicular to one another and the struts are positioned such that the live parts of the heater are covered, and wherein the housing has a receiving region for receiving a controller and in that the opening for inserting the heater is provided at the receiving region.
A multilayer overlay welding section of a high Cr steel turbine rotor comprising a first layer welding section and an upper layer welding section, wherein the first layer welding section is formed on a bearing contact surface of the high Cr steel turbine rotor, the first layer welding section consisting of, in terms of % by weight: C: 0.05 to 0.2%, Si: 0.1 to 1.0%, Mn: 0.3 to 1.5%, Cr: 4.0 to 7.7%, and Mo: 0.5 to 1.5%, with a remainder being Fe and unavoidable impurities, in which the unavoidable impurities contain P: 0.015% or less, S: 0.015% or less, Cu: 0.2% or less, V: 0.2% or less, Ni: 0.3% or less, Co: 1.5% or less, B: 0.005% or less, W: 1.5% or less, and Nb: 0.07% or less in terms of % by weight based on the first layer welding section; wherein the upper layer welding section is formed on the first layer welding section, the upper layer welding section consisting of, in terms of % by weight: C: 0.05 to 0.2%, Si: 0.1 to 1.0%, Mn: 0.3 to 2.5%, Cr: 1.0 to 4.0%, and Mo: 0.5 to 1.5%, with a remainder being Fe and unavoidable impurities, in which the unavoidable impurities contain P: 0.015% or less, S: 0.015% or less, Cu: 0.2% or less, V: 0.15% or less, Ni: 0.3% or less, and Nb: 0.07% or less in terms of % by weight based on the upper layer welding section; characterised in that an amount of V contained in the upper layer welding section is smaller than an amount of V contained In the first layer welding section; and wherein the high Cr steel turbine rotor is constituted by a high Cr steel consisting of: C: 0.05 to 0.25%, Si: 1.0% or less, Mn: 1.5% or less, Ni: 1.0% or less, Cr: 8 to 13%, Mo: 2.0% or less, V: 0.05 to 0.4%, Nb: 0.01 to 0.1%, N: 0.01 to 0.05%, W: 0.05 to 5.0%, Co: 0.05 to 5%, and B: 0.015% or less, with a remainder being Fe and unavoidable impurities. C: 0.05 to 0.2%, Si: 0.1 to 1.0%, Mn: 0.3 to 1.5%, Cr: 4.0 to 7.7%, and Mo: 0.5 to 1.5%, C: 0.05 to 0.2%, Si: 0.1 to 1.0%, Mn: 0.3 to 2.5%, Cr: 1.0 to 4.0%, and Mo: 0.5 to 1.5%, C: 0.05 to 0.25%, Si: 1.0% or less, Mn: 1.5% or less, Ni: 1.0% or less, Cr: 8 to 13%, Mo: 2.0% or less, V: 0.05 to 0.4%, Nb: 0.01 to 0.1%, N: 0.01 to 0.05%, W: 0.05 to 5.0%, Co: 0.05 to 5%, and B: 0.015% or less,