mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a powder-based additive manufacturing system , the method comprising: supplying a powder build material to a print region of the additive manufacturing system ; depositing at least one of a fusing agent and a detailing agent in a pattern to the build material; applying energy to fuse the build material to generate a temperature distribution of at least a surface of the build material, the temperature distribution corresponding to the pattern; capturing an image of the pattern using a thermal sensor of the powder-based additive manufacturing system ; characterized by comparing image data representative of the captured image of the pattern with data representative of an expected position of the pattern; on the basis of the comparing, generating difference data indicative of a difference between: a position of the thermal sensor during capture of the image of the pattern; and an expected position of the thermal sensor associated with the expected position of the pattern; and controlling operation of the powder-based additive manufacturing system at least in dependence on the generated difference data. supplying a powder build material to a print region of the additive manufacturing system ; depositing at least one of a fusing agent and a detailing agent in a pattern to the build material; applying energy to fuse the build material to generate a temperature distribution of at least a surface of the build material, the temperature distribution corresponding to the pattern; capturing an image of the pattern using a thermal sensor of the powder-based additive manufacturing system ; characterized by comparing image data representative of the captured image of the pattern with data representative of an expected position of the pattern; on the basis of the comparing, generating difference data indicative of a difference between: a position of the thermal sensor during capture of the image of the pattern; and an expected position of the thermal sensor associated with the expected position of the pattern; and controlling operation of the powder-based additive manufacturing system at least in dependence on the generated difference data. a position of the thermal sensor during capture of the image of the pattern; and an expected position of the thermal sensor associated with the expected position of the pattern; and controlling operation of the powder-based additive manufacturing system at least in dependence on the generated difference data.
Method for providing map data (K) in a first motor vehicle , comprising the steps of: - transmitting position data (P) detected by a plurality of second motor vehicles concerning people (F1, F2, F3, F4) detected by the second motor vehicles in a surrounding area of the respective second motor vehicles to a central data-processing unit ; - depending on the aggregated position data (P), specifying at least one route which was at least partly used by at least some of the people (F1, F2, F3, F4) by means of the central data-processing unit ; and - providing route data (W) of the specified at least one route as part of the map data (K) in the first motor vehicle ; characterized in that depending on the aggregated position data (P), it shall be reviewed whether at least one stop point is located on the specified route , and if this is the case then a position of the stop point shall be provided to the first motor vehicle as part of the route data (W), wherein, depending on the detected position data (P), movement data of the people (F1, F2, F3, F4) are determined and the at least one stop point is specified depending on said movement data. - transmitting position data (P) detected by a plurality of second motor vehicles concerning people (F1, F2, F3, F4) detected by the second motor vehicles in a surrounding area of the respective second motor vehicles to a central data-processing unit ; - depending on the aggregated position data (P), specifying at least one route which was at least partly used by at least some of the people (F1, F2, F3, F4) by means of the central data-processing unit ; and - providing route data (W) of the specified at least one route as part of the map data (K) in the first motor vehicle ;
A respiratory apparatus for delivering a flow of breathable gas to a patient, comprising a flow generator and a humidifier , the flow generator being configured to generate a flow of breathable gas , and the humidifier comprising a humidifier chamber and a tub , the tub being configured to contain a supply of water and being insertable into the humidifier chamber , the humidifier further comprising a humidifier lid attached to a wall of the humidifier chamber and pivotable between an open position in which the tub is insertable from the top into the humidifier chamber and a closed position in which the humidifier lid covers the inserted tub , the humidifier chamber further comprising an inlet configured to receive the flow of breathable gas generated by the flow generator, a bottom with a heating plate configured to heat the supply of water contained in the tub , a back wall with an opposing front retaining wall , and two opposing lateral sides, said inlet being provided on one of the opposing lateral sides, wherein the tub comprises a tub base and a tub lid , wherein the flow generator and the humidifier are connectable with the lateral side of the humidifier chamber comprising the inlet relative to the flow generator so that latches on the humidifier are received in corresponding recesses or catches on the flow generator . the flow generator being configured to generate a flow of breathable gas , and the humidifier comprising a humidifier chamber and a tub , the tub being configured to contain a supply of water and being insertable into the humidifier chamber , the humidifier further comprising a humidifier lid attached to a wall of the humidifier chamber and pivotable between an open position in which the tub is insertable from the top into the humidifier chamber and a closed position in which the humidifier lid covers the inserted tub , the humidifier chamber further comprising an inlet configured to receive the flow of breathable gas generated by the flow generator, a bottom with a heating plate configured to heat the supply of water contained in the tub , a back wall with an opposing front retaining wall , and two opposing lateral sides, said inlet being provided on one of the opposing lateral sides, wherein the tub comprises a tub base and a tub lid , wherein the flow generator and the humidifier are connectable with the lateral side of the humidifier chamber comprising the inlet relative to the flow generator so that latches on the humidifier are received in corresponding recesses or catches on the flow generator .
A method for manufacturing a vehicle window component, comprising: providing a vehicle window substrate (100; 200) and an elastic body (110; 210); and adhering the elastic body (110; 210) to a surface of the vehicle window substrate , wherein the surface is close to a lateral side of the vehicle window substrate (100; 200); and implementing an injection molding process for forming an encapsulation (120; 220), the injection molding process is performed at an injecting molding temperature lower than a melting temperature of the elastic body (110; 210), wherein the minimum linear distance between the elastic body (110; 210) and the closest outer edge of the vehicle window substrate (100; 200) is larger than or equal to 4mm, and the encapsulation encompasses the elastic body (110; 210) and the vehicle window substrate (100; 200). providing a vehicle window substrate (100; 200) and an elastic body (110; 210); and adhering the elastic body (110; 210) to a surface of the vehicle window substrate , wherein the surface is close to a lateral side of the vehicle window substrate (100; 200); and implementing an injection molding process for forming an encapsulation (120; 220), the injection molding process is performed at an injecting molding temperature lower than a melting temperature of the elastic body (110; 210), wherein the minimum linear distance between the elastic body (110; 210) and the closest outer edge of the vehicle window substrate (100; 200) is larger than or equal to 4mm, and the encapsulation encompasses the elastic body (110; 210) and the vehicle window substrate (100; 200).
A homogeneous rear signal lights system of a motor vehicle, each light being able to be mounted in a rear corner of the vehicle having a body shell (C) and an openable rear hatch (V), this system comprising two groups of units of lights for each rear light , a group of "shell" lights (1, 1', 1") intended to be mounted on the shell (C) and a group of "hatch" lights (2, 2', 2") intended to be mounted on the hatch (V), as well as a centralised member for controlling the light intensity emitted by the rear lights of the vehicle, this member distributing at least one light intensity in a replicated manner between the two groups of rear lights (1, 1', 1"; 2, 2', 2") corresponding to a light signal, said system also comprising a sensor for detecting the opening of the hatch (V), which is able to transmit an information signal relating to the opening/closing of the hatch (V) to the centralised member for controlling the light intensity, characterized in that in the event of transmission of an opening signal, the centralised member for controlling the light intensity is then able to supply, to each shell group (1, 1', 1"), a signal for controlling increased light intensity (Va) in relation to the replicated nominal intensity (Vn) corresponding to a closed state of the hatch (V).
Housing for an electric machine, wherein the housing is equipped with a cooling device, a cylindrical support plate and a cylindrical heat-conducting ring , wherein the housing is designed to be cylindrical and comprises a housing shell and a cylindrical housing cover inserted into the housing shell from the axial side in a form-fit manner, wherein the cooling device is arranged in a radially outer region of the support plate on the periphery of the support plate , wherein the support plate and components arranged thereon are vibration damped and electrically insulated, wherein an inner part is connected in a form-fit manner with the housing cover within the housing cover , wherein a press-on ring is provided on the housing cover , and wherein the inner part and the press-on ring as elastic elements are connected to the support plate in a force-fit manner, wherein the cooling device and the support plate are clamped between the press-on ring and the heat-conducting ring .
A eutectic solvent of natural origin, such as a deep eutectic solvent of natural origin, said solvent comprising: a) a plurality of different carbohydrates of natural origin, said plurality a) comprising glucose and fructose, and b) a plurality of different organic acids of natural origin, said plurality b) comprising malic acid and citric acid; said solvent having a Brix degree of at least 8, preferably of at least 9 and advantageously of at least 10, at 20°C. a) a plurality of different carbohydrates of natural origin, said plurality a) comprising glucose and fructose, and b) a plurality of different organic acids of natural origin, said plurality b) comprising malic acid and citric acid;
An OLED display panel, including a light-emitting layer; wherein the light-emitting layer (ER) comprises white sub-pixels (W) and color sub-pixels (R, G, B) corresponding to individually patterned regions of the light emitting layer, and the number of different colors of the color sub-pixels (R, G, B) is less than 3; the OLED display panel further comprising a color film (CF), the color film (CF) comprising color blocks (R', G', B'), the color blocks (R', G', B') being disposed on a side of the light-emitting layer (ER) toward the display side and overlapping the white sub-pixels (W), characterized in that , a size of the white sub-pixel (W) is equal to the sum of size of at least two of the color sub-pixels (R, G, B), and for the same color the color blocks (R', G', B') have the same size as the color sub-pixels (R, G, B). the light-emitting layer (ER) comprises white sub-pixels (W) and color sub-pixels (R, G, B) corresponding to individually patterned regions of the light emitting layer, and the number of different colors of the color sub-pixels (R, G, B) is less than 3; the OLED display panel further comprising a color film (CF), the color film (CF) comprising color blocks (R', G', B'), the color blocks (R', G', B') being disposed on a side of the light-emitting layer (ER) toward the display side and overlapping the white sub-pixels (W), characterized in that , a size of the white sub-pixel (W) is equal to the sum of size of at least two of the color sub-pixels (R, G, B), and for the same color the color blocks (R', G', B') have the same size as the color sub-pixels (R, G, B).
An apparatus for sensing a rotational position of a target , in particular for offset invariant sensing of the rotational position of the target , the apparatus comprising: at least three sensor elements , which are arranged in one or more planes, wherein in case of more than one plane, the planes are parallel to each other, wherein at least one sensor element of the at least three sensor elements generates an alternating first magnetic field, wherein at least two sensor elements of the at least three sensor elements receive a second magnetic field associated with the first magnetic field, wherein the second magnetic field is the first magnetic field affected by the target by deforming the magnetic field lines of the first magnetic field in a preferred direction and wherein the at least two sensor elements of the at least three sensor elements form at least one sensor element pair and provide a signal indicative of the position of the target , and wherein at least a portion of the at least one sensor element of the at least three sensor elements , which generates the first magnetic field, spatially surrounds the at least two sensor elements of the at least three sensor elements , which receive the second magnetic field. at least three sensor elements , which are arranged in one or more planes, wherein in case of more than one plane, the planes are parallel to each other, wherein at least one sensor element of the at least three sensor elements generates an alternating first magnetic field, wherein at least two sensor elements of the at least three sensor elements receive a second magnetic field associated with the first magnetic field, wherein the second magnetic field is the first magnetic field affected by the target by deforming the magnetic field lines of the first magnetic field in a preferred direction and wherein the at least two sensor elements of the at least three sensor elements form at least one sensor element pair and provide a signal indicative of the position of the target , and wherein at least a portion of the at least one sensor element of the at least three sensor elements , which generates the first magnetic field, spatially surrounds the at least two sensor elements of the at least three sensor elements , which receive the second magnetic field.
A dust collector for a vacuum cleaner , comprising: a first cyclone disposed within an outer case to filter out dust from air introduced from an outside thereof and introduce the air from which dust has been filtered out to an inside thereof; a second cyclone accommodated in the inside of the first cyclone to separate fine dust from the air introduced to the inside of the first cyclone ; a first guide vane spirally extended from an annular shaped first space (S1) between the first and the second cyclone to induce rotational flow so as to introduce air introduced into the first space (S1) to an inlet of the second cyclone ; and a second guide vane spirally extended along an inner circumference of the inlet to enhance the rotational flow of air introduced to an inside of the second cyclone through the inlet , wherein the first guide vane is formed in an inclined manner upward to introduce air and fine dust to the inlet of the second cyclone , and the second guide vane is formed in an inclined manner downward to further enhance the rotational flow inside the second cyclone . a first cyclone disposed within an outer case to filter out dust from air introduced from an outside thereof and introduce the air from which dust has been filtered out to an inside thereof; a second cyclone accommodated in the inside of the first cyclone to separate fine dust from the air introduced to the inside of the first cyclone ; a first guide vane spirally extended from an annular shaped first space (S1) between the first and the second cyclone to induce rotational flow so as to introduce air introduced into the first space (S1) to an inlet of the second cyclone ; and a second guide vane spirally extended along an inner circumference of the inlet to enhance the rotational flow of air introduced to an inside of the second cyclone through the inlet ,
A voltage sampling circuit for sampling the voltage of at least two sets of cells in a battery pack, the voltage sampling circuit comprising: at least two analog front ends, AFEs , comprising a low-side AFE connected to a first set of cells and a high-side AFE connected to a second set of cells ; a subtractor for obtaining the analog voltage of the second set of cells connected to the high-side AFE with respect to ground comprising: a positive input terminal connecting to an output interface (Uout2) of the high-side AFE for receiving the analog voltage output by the high-side AFE ; and a negative input terminal, which when the first set of cells is connected with the second set of cells in series is connected to the total positive voltage of the first set of cells , and which when the first set of cells is connected with the second set of cells in parallel is grounded. at least two analog front ends, AFEs , comprising a low-side AFE connected to a first set of cells and a high-side AFE connected to a second set of cells ; a subtractor for obtaining the analog voltage of the second set of cells connected to the high-side AFE with respect to ground comprising: a positive input terminal connecting to an output interface (Uout2) of the high-side AFE for receiving the analog voltage output by the high-side AFE ; and a negative input terminal, which when the first set of cells is connected with the second set of cells in series is connected to the total positive voltage of the first set of cells , and which when the first set of cells is connected with the second set of cells in parallel is grounded. a positive input terminal connecting to an output interface (Uout2) of the high-side AFE for receiving the analog voltage output by the high-side AFE ; and a negative input terminal, which when the first set of cells is connected with the second set of cells in series is connected to the total positive voltage of the first set of cells , and which when the first set of cells is connected with the second set of cells in parallel is grounded.
A system comprising: a plurality of Janus droplets, each comprising a first phase comprising a hydrocarbon, a second phase immiscible with the first phase, and an interface between the first phase and the second phase, wherein the plurality of Janus droplets are oriented such that a plurality of the interfaces are aligned parallel with respect to one another; and a detector; wherein the plurality of Janus droplets are associated with binding moieties, and wherein the binding moieties are capable of binding to an analyte, thereby changing at least a portion of the plurality of Janus droplets in orientation such that the interfaces are no longer aligned parallel with respect to one another, the change in orientation being sufficient to change electromagnetic radiation interacting with the plurality of Janus droplets in a detectable manner by the detector. a plurality of Janus droplets, each comprising a first phase comprising a hydrocarbon, a second phase immiscible with the first phase, and an interface between the first phase and the second phase, wherein the plurality of Janus droplets are oriented such that a plurality of the interfaces are aligned parallel with respect to one another; and a detector; wherein the plurality of Janus droplets are associated with binding moieties, and wherein the binding moieties are capable of binding to an analyte, thereby changing at least a portion of the plurality of Janus droplets in orientation such that the interfaces are no longer aligned parallel with respect to one another, the change in orientation being sufficient to change electromagnetic radiation interacting with the plurality of Janus droplets in a detectable manner by the detector.
Fuel cell system comprising a stack of electrochemical cells forming a polymer ionexchange membrane fuel cell , a fuel gas supply circuit and an oxidant gas supply circuit, said oxidant gas supply circuit comprising a compressor intended to compress the ambient air before it enters the fuel cell , and an outlet exhaust intended to discharge the gases leaving the fuel cell, said supply circuit being connected to the fuel cell at a first access point and a second access point , the system additionally comprising a switching element that has two positions: a first position in which the outlet of the compressor is connected to the first access point , and the second access point is connected to the outlet exhaust , and a second position in which the outlet of the compressor is connected to the second access point , and the first access point is connected to the outlet exhaust , and the system comprising a moisture reservoir positioned in the oxidant gas supply circuit, upstream of the first access point , the system being characterized in that it comprises two pressure sensors installed in the oxidant gas supply circuit, between the switching element and the first and second access points respectively.
Device for transporting containers on a transport path (TS) in a transport direction (A), comprising at least one first transport element (TE1) and a second transport element (TE2), which are interconnected along the transport path (TS) by a transport path portion (TSA), wherein the transport path portion (TSA) comprises a first and a second transport path portion (TSA1, TSA2), of which at least the first and/or second transport path portion (TSA1, TSA2) is in the form of a partial circle, and wherein a third transport path portion (TSA3) is provided along the transport path (TS) between the first and second transport path portions (TSA1, TSA2), wherein the third transport path portion (TSA3) comprises at least one transition curve portion (ÜKA1, ÜKA2, ÜKA3) with an adjustable curve path, and wherein the curvature of the curve path of the at least one transition curve portion (ÜKA1,ÜKA2, ÜKA3) is configured in each case as being adjustable by means of at least one adjustment device (50.1, 50.2, 50.3) of the device in a motor-controlled and/or motor-regulated manner, characterised in that at least one sensor device (53.1, 53.2, 53.3) is provided, which is electrically connected to the corresponding adjustment device (50.1, 50.2, 50.3) by means of a control and evaluation device of the device , which sensor device is configured such as to detect an actual splash height (IH) of the respective container in a fixed-position detection region, and, by means of an evaluation electronics unit located in the electronic control and evaluation device , to compare this with a stored reference splash height (SH), and to generate a signal from a possible deviation between the values and to actuate the adjustment devices (50.1, 50.2, 50.3) concerned, in order to carry out the adjustment required by the deviation between the actual splash height (IH) and the reference splash height (SH) of at least one length (L1, L2, L3) and/or at least one radius (RÜKA1, ÜKA2, ÜKA3) and/or of at least one mid-point (MP1,MP2, MP3) of the associated radius (RÜKA1, ÜKA2, ÜKA3) in an X-direction and/or Y-direction of the curvature of the curve path of the at least one transition curve portion (ÜKA1, ÜKA2, ÜKA3), by means of the at least one adjustment device (50.1, 50.2, 50.3).