mhurhangee/ep-ind-claims huggingface dataset:
A self-propelled combine harvester with a housing containing a housing wall, wherein the housing is a drum housing for a threshing assembly of the self-propelled combine harvester, wherein • the self-propelled combine harvester is of the shaker machine type, wherein the first conveying and/or processing assembly (63, 63') is a separating drum and the first floor segment is a concave floor segment, or • the self-propelled combine harvester is of the axial flow machine type, in particular a hybrid machine, wherein the first conveying and/or processing assembly (63, 63') is a feed drum and the first floor segment is an inflow floor segment, wherein the housing wall has at least one first through opening through which a first conveying and/or processing assembly (63, 63') of the combine harvester can be removed, characterized in that it has a first positioning module with at least two first articulation points (731, 732) of which, depending on the type of combine harvester, • at least one can be selected for securing components (501 - 507) of an adjustment mechanism for a first floor segment (65, 67), and/or • one can be selected in order to dispose a second conveying and/or processing assembly (4, 401) of the combine harvester downstream of the first conveying and/or processing assembly. • the self-propelled combine harvester is of the shaker machine type, wherein the first conveying and/or processing assembly (63, 63') is a separating drum and the first floor segment is a concave floor segment, or • the self-propelled combine harvester is of the axial flow machine type, in particular a hybrid machine, wherein the first conveying and/or processing assembly (63, 63') is a feed drum and the first floor segment is an inflow floor segment, wherein the housing wall has at least one first through opening through which a first conveying and/or processing assembly (63, 63') of the combine harvester can be removed, characterized in that it has a first positioning module with at least two first articulation points (731, 732) of which, depending on the type of combine harvester, • at least one can be selected for securing components (501 - 507) of an adjustment mechanism for a first floor segment (65, 67), and/or • one can be selected in order to dispose a second conveying and/or processing assembly (4, 401) of the combine harvester downstream of the first conveying and/or processing assembly. • at least one can be selected for securing components (501 - 507) of an adjustment mechanism for a first floor segment (65, 67), and/or • one can be selected in order to dispose a second conveying and/or processing assembly (4, 401) of the combine harvester downstream of the first conveying and/or processing assembly.
A mobile crane, in particular a crawler crane, comprising an undercarriage having a chassis and a superstructure rotatably supported on the undercarriage and having a pivotable boom, wherein at least two platforms are permanently arranged laterally at the superstructure via which the superstructure is walkable, wherein the platforms each comprise a base movable from a transport position in which they contact the superstructure into a work position in which the bases are walkable, movable, and vice versa, characterized in that the platforms each also comprise a railing in which the bases are secured in a working position by the railings so that the platforms are pivotable about at least two pivot axes (A1, A2) into the work position, with two of the at least two pivot axes (A1, A2) preferably not being in parallel with one another and so that the bases are pivotable into the work position about two non-parallel pivot axes (A1, A2), in a particular two pivot axes (A1, A2) perpendicular to one another and the railings are pivotable, foldable, displaceable, and/or telescopable into the work position. wherein the platforms each comprise a base movable from a transport position in which they contact the superstructure into a work position in which the bases are walkable, movable, and vice versa, characterized in that the platforms each also comprise a railing in which the bases are secured in a working position by the railings so that the platforms are pivotable about at least two pivot axes (A1, A2) into the work position, with two of the at least two pivot axes (A1, A2) preferably not being in parallel with one another and so that the bases are pivotable into the work position about two non-parallel pivot axes (A1, A2), in a particular two pivot axes (A1, A2) perpendicular to one another and the railings are pivotable, foldable, displaceable, and/or telescopable into the work position.
Light modulation element comprising a pair of substrates, each provided with an electrode structure, and a cholesteric liquid-crystalline medium having a helical pitch in the range from 0.2 μm to 2 μm that is sandwiched between the substrates, wherein at least one of the substrates is additionally provided with an alignment layer that induces a homeotropic alignment to the adjacent liquid crystal molecules, the alignment layer being provided with a photoresist pattern consisting of periodic substantially parallel stripes that is rubbed in a direction parallel to the extension of the stripes and which is provided on the alignment layer and which has been obtained via photolithography processes from a layer of a suitable photoresist, wherein the height of the periodic substantially parallel stripes of the photoresist pattern is in the range from 30 to 900 nm, and wherein the photoresist pattern is selected such that, at the same time, either the gap between the stripes and the width of the stripes corresponds to a half of the helical pitch of the applied cholesteric liquid crystalline material, or the gap between the stripes and the width of the stripes corresponds to an even multiple of the helical pitch of the applied cholesteric liquid crystalline material, and wherein the cholesteric liquid crystalline material is unidirectional aligned with its helical axis parallel to the substrates of the light modulation element.
A method for supporting multiple contactless applications using different security keys on a wireless smart device, the method comprising: at a wireless smart device configured to communicate with a wireless smart device reader, the wireless device including a plurality of contactless applications and a contactless application memory for use by the plurality of contactless applications: initializing a portion of the memory such that access to the portion of memory requires the use of a shared secret key known to the plurality of contactless applications; reserving, by one contactless application from among the plurality of contactless applications, the portion of memory for use by one of the plurality of contactless applications by using the shared secret key to write an application-specific key into a sector trailer block of the portion of memory to set access privileges for the portion of memory such that access to the portion of memory requires the use of the application-specific secret key associated with the one application and not known to the other applications; accessing, by the one contactless application, the reserved portion of memory using the application-specific secret key, and using, by the one contactless application, the application-specific secret key to write the shared secret key into a sector trailer block of the portion of memory thereby releasing the reserved portion of memory and setting access privileges for the portion of memory such that access to the portion of memory requires the use of the shared secret key. initializing a portion of the memory such that access to the portion of memory requires the use of a shared secret key known to the plurality of contactless applications; reserving, by one contactless application from among the plurality of contactless applications, the portion of memory for use by one of the plurality of contactless applications by using the shared secret key to write an application-specific key into a sector trailer block of the portion of memory to set access privileges for the portion of memory such that access to the portion of memory requires the use of the application-specific secret key associated with the one application and not known to the other applications; accessing, by the one contactless application, the reserved portion of memory using the application-specific secret key, and using, by the one contactless application, the application-specific secret key to write the shared secret key into a sector trailer block of the portion of memory thereby releasing the reserved portion of memory and setting access privileges for the portion of memory such that access to the portion of memory requires the use of the shared secret key.
Scale, in particular loading scale, having a weighing cell for recording the weight of items to be weighed and having a removable load plate that interacts therewith for placing items to be weighed, wherein the weighing cell is arranged within a shell and is able to be brought from a weighing position into a cleaning position via a slotted guide, characterised in that the weighing cell is able to be removed in a cleaning position by a slotted track of the slotted guide having an opening.
A system for continuously anticoagulating blood comprising: a whole blood draw line through which whole blood is drawn from a donor; an anticoagulant flow line through which anticoagulant containing a citrate from an anticoagulant source is flowed into the whole blood drawn from the donor; and a controller programmed to operate the system so as to draw blood from the donor at a draw flow rate, operate the system so as to add anticoagulant from the anticoagulant source into the whole blood drawn from the donor at an anticoagulant flow rate to form anticoagulated blood, and operate the system so as to return at least a portion of the anticoagulated blood to the donor, wherein the anticoagulant flow rate is independent of the draw flow rate and is calculated using the formula "AC=S*CIR*weight/concentration," where "AC" is the anticoagulant flow rate, "S" is a factor based on the percentage of anticoagulant predicted to be returned to the donor, "CIR" is a citrate infusion rate at which the donor can metabolize said citrate, "weight" is the weight of the donor, and "concentration" is the citrate concentration of the anticoagulant. a whole blood draw line through which whole blood is drawn from a donor; an anticoagulant flow line through which anticoagulant containing a citrate from an anticoagulant source is flowed into the whole blood drawn from the donor; and a controller programmed to operate the system so as to draw blood from the donor at a draw flow rate, operate the system so as to add anticoagulant from the anticoagulant source into the whole blood drawn from the donor at an anticoagulant flow rate to form anticoagulated blood, and operate the system so as to return at least a portion of the anticoagulated blood to the donor, wherein the anticoagulant flow rate is independent of the draw flow rate and is calculated using the formula "AC=S*CIR*weight/concentration," where "AC" is the anticoagulant flow rate, "S" is a factor based on the percentage of anticoagulant predicted to be returned to the donor, "CIR" is a citrate infusion rate at which the donor can metabolize said citrate, "weight" is the weight of the donor, and "concentration" is the citrate concentration of the anticoagulant. operate the system so as to draw blood from the donor at a draw flow rate, operate the system so as to add anticoagulant from the anticoagulant source into the whole blood drawn from the donor at an anticoagulant flow rate to form anticoagulated blood, and operate the system so as to return at least a portion of the anticoagulated blood to the donor, wherein the anticoagulant flow rate is independent of the draw flow rate and is calculated using the formula "AC=S*CIR*weight/concentration," where "AC" is the anticoagulant flow rate, "S" is a factor based on the percentage of anticoagulant predicted to be returned to the donor, "CIR" is a citrate infusion rate at which the donor can metabolize said citrate, "weight" is the weight of the donor, and "concentration" is the citrate concentration of the anticoagulant.
An actuating device for an electromechanically actuatable vehicle brake, comprising - a multi-stage transmission unit ( 10, 20, 30), which is arranged between a driving electric motor and a driven drive element of the vehicle brake, wherein - at least one stage ( 10, 20, 30) of the transmission unit is embodied as a spur-gear transmission, and at least two stages ( 10, 20, 30) of the transmission unit are coupled by means of a double gearwheel ( 12/21; 22*/31*), the rotational axis of which extends parallel to the rotational axis of the electric motor, and wherein - the transmission unit has at least one intermediate stage ( 24; 25; 26) which is embodied as a spur-gear transmission and into which at least one stage, embodied as a spur-gear transmission, of the transmission unit ( 10; 20; 30) is integrated, characterized in that - the intermediate stage ( 24; 25; 26) which is embodied as a spur-gear transmission has two intermediate gearwheels ( 24a, 24b; 25a, 25b; 26a, 26b), - the rotational axes ( D, E; F, G) of the intermediate gearwheels ( 24a, 24b; 25a, 25b; 26a, 26b) extend parallel to the rotational axis of the electric motor, wherein - the plane ( D-E; F-G) formed by the rotational axes ( D, E; F, G) of the intermediate gearwheels ( 24a, 24b; 25a, 25b; 26a, 26b) extends perpendicularly with respect to the plane ( A-B-C) formed by the rotational axis of the electric motor and the rotational axis of the double gearwheel ( 12/21; 22*/31*). - a multi-stage transmission unit ( 10, 20, 30), which is arranged between a driving electric motor and a driven drive element of the vehicle brake, wherein - at least one stage ( 10, 20, 30) of the transmission unit is embodied as a spur-gear transmission, and at least two stages ( 10, 20, 30) of the transmission unit are coupled by means of a double gearwheel ( 12/21; 22*/31*), the rotational axis of which extends parallel to the rotational axis of the electric motor, and wherein - the transmission unit has at least one intermediate stage ( 24; 25; 26) which is embodied as a spur-gear transmission and into which at least one stage, embodied as a spur-gear transmission, of the transmission unit ( 10; 20; 30) is integrated, - the intermediate stage ( 24; 25; 26) which is embodied as a spur-gear transmission has two intermediate gearwheels ( 24a, 24b; 25a, 25b; 26a, 26b), - the rotational axes ( D, E; F, G) of the intermediate gearwheels ( 24a, 24b; 25a, 25b; 26a, 26b) extend parallel to the rotational axis of the electric motor, wherein - the plane ( D-E; F-G) formed by the rotational axes ( D, E; F, G) of the intermediate gearwheels ( 24a, 24b; 25a, 25b; 26a, 26b) extends perpendicularly with respect to the plane ( A-B-C) formed by the rotational axis of the electric motor and the rotational axis of the double gearwheel ( 12/21; 22*/31*).
An infant nasal interface mask for use with a nasal continuous positive airway pressure (nCPAP) system, the mask comprising: a mask body forming a cavity and defined by a side wall forming a leading portion, an intermediate shell portion, and a trailing portion, wherein: the leading portion terminates in a leading edge forming an aperture open to the cavity and having a generally triangular shape for placement over a patient's nose, and the trailing portion includes a bellows segment characterized by an increased flexibility as compared to a flexibility of the intermediate shell portion; and a base extending from the trailing portion opposite the leading portion, the base forming at least one passage (120, 122) extending longitudinally through a thickness of the base from an opening in a rear face of the base and fluidly connected to the cavity; wherein the intermediate shell portion is longitudinally moveable and laterally pivotable relative to the base via the bellows segment; and wherein the bellows segment is characterized by the side wall having a reduced cross-sectional thickness along the bellows segment as compared to a nominal thickness of the side wall along at least a segment of the intermediate shell portion. the leading portion terminates in a leading edge forming an aperture open to the cavity and having a generally triangular shape for placement over a patient's nose, and the trailing portion includes a bellows segment characterized by an increased flexibility as compared to a flexibility of the intermediate shell portion; and a base extending from the trailing portion opposite the leading portion, the base forming at least one passage (120, 122) extending longitudinally through a thickness of the base from an opening in a rear face of the base and fluidly connected to the cavity; wherein the intermediate shell portion is longitudinally moveable and laterally pivotable relative to the base via the bellows segment; and wherein the bellows segment is characterized by the side wall having a reduced cross-sectional thickness along the bellows segment as compared to a nominal thickness of the side wall along at least a segment of the intermediate shell portion.
Internal combustion engine with a slider-crank mechanism comprising a housing, wherein: - inside the housing a shaft with a crank and at least two cylinders (4, 5) with double-acting pistons on rods is located; - the rods extend from the pistons through guide sleeves and are connected to a clamping unit; - the clamping unit consists of a body in the form of a frame with a rectangular cross-section and internal guide surfaces for a slide; - the slide is located between the internal guide surfaces and is movably mounted between the internal guide surfaces and rotatably on the crank of the shaft; - the slide is designed with two connected halves with first lubricating grooves; - the first lubricating grooves serve to lubricate an outer sliding plane on the slide; - the guide sleeves are arranged in the cylinder heads (9, 10); - the body of the clamping unit along the axis of the cylinders (4, 5) with its side surfaces between guide surfaces in the motor housing; - the side surfaces are provided with second lubricating grooves; and - the first lubricating grooves on the slide do not extend beyond the outer sliding plane and the inner guide surfaces in the body of the clamping unit. - inside the housing a shaft with a crank and at least two cylinders (4, 5) with double-acting pistons on rods is located; - the rods extend from the pistons through guide sleeves and are connected to a clamping unit; - the clamping unit consists of a body in the form of a frame with a rectangular cross-section and internal guide surfaces for a slide; - the slide is located between the internal guide surfaces and is movably mounted between the internal guide surfaces and rotatably on the crank of the shaft; - the slide is designed with two connected halves with first lubricating grooves; - the first lubricating grooves serve to lubricate an outer sliding plane on the slide; - the guide sleeves are arranged in the cylinder heads (9, 10); - the body of the clamping unit along the axis of the cylinders (4, 5) with its side surfaces between guide surfaces in the motor housing; - the side surfaces are provided with second lubricating grooves; and - the first lubricating grooves on the slide do not extend beyond the outer sliding plane and the inner guide surfaces in the body of the clamping unit.
A method for routing data from a first node to a second node (120, 140, 145) via a mobile gateway, the method comprising the gateway: detecting the second node and a local identifier of the second node, wherein the second node is communicatively attached to the gateway; associating a name and a global network address with the second node; configuring a routing configuration associating the global network address with the local identifier of the second node; publishing the name and the global network address of the second node to a name service from which the first node acquires the global network address based on the name; receiving, using a first communication standard, data from the first node that is addressed to the global network address; transmitting, using a second communication standard, the data to the second node based on the local identifier that is associated with the global network address in the routing configuration; and responsive to detecting an absence of communicative attachment to the second node, disassociating the global network address from the second node; and removing the association of the name to the global network address using an address resolution server. detecting the second node and a local identifier of the second node, wherein the second node is communicatively attached to the gateway; associating a name and a global network address with the second node; configuring a routing configuration associating the global network address with the local identifier of the second node; publishing the name and the global network address of the second node to a name service from which the first node acquires the global network address based on the name; receiving, using a first communication standard, data from the first node that is addressed to the global network address; transmitting, using a second communication standard, the data to the second node based on the local identifier that is associated with the global network address in the routing configuration; and responsive to detecting an absence of communicative attachment to the second node, disassociating the global network address from the second node; and removing the association of the name to the global network address using an address resolution server.
A device for administering Intermittent Pneumatic Compression and Protocols of Artificially Induced Oscillations (PAIO) useful in alleviating peripheral circulatory disorders of a treated organ and in wound healing of a treated organ, comprising a wearable Body Portion Enclosure (400, 201, 1300, 1201, 1202) adapted to contact said treated organ, said BPE comprising: a. one or more balloons (101, 211, 1301, 5806) or balloon layers (401, 701), adapted to be inflated and deflated for creating said IPC; b. one or more pressure sources (409, 1302, 1304, 5813, 1303, 1204) in fluid communication (202, 405, 406) with said balloons (101, 211, 1301, 5806) by way of one or more valves; c. one or more vibrating elements (407, 409, 1305, 1307, 5814) adapted to produce PAIO; d. a controlling unit adapted to operate said pressure sources, and to operate said vibrating elements; e. a pressure means for producing a negative pressure condition over said wound according to a predetermined sub protocol, via an inner flexible porous layer and/or a pressure means for producing a positive pressure condition over said wound according to a predetermined sub protocol (DrP); said PAIO may be administered during said IPC, and said negative pressure condition to said treated organ according to predetermined protocols; characterized in that said device further comprises an inner flexible porous spongy layer for covering a dressed or undressed wound, and a middle non permeable layer for sealing said wound. a. one or more balloons (101, 211, 1301, 5806) or balloon layers (401, 701), adapted to be inflated and deflated for creating said IPC; b. one or more pressure sources (409, 1302, 1304, 5813, 1303, 1204) in fluid communication (202, 405, 406) with said balloons (101, 211, 1301, 5806) by way of one or more valves; c. one or more vibrating elements (407, 409, 1305, 1307, 5814) adapted to produce PAIO; d. a controlling unit adapted to operate said pressure sources, and to operate said vibrating elements; e. a pressure means for producing a negative pressure condition over said wound according to a predetermined sub protocol, via an inner flexible porous layer and/or a pressure means for producing a positive pressure condition over said wound according to a predetermined sub protocol (DrP);