mhurhangee/ep-ind-claims huggingface dataset:
Method of operating a laboratory sample distribution system, wherein the laboratory sample distribution system comprises: - a plurality of sample container carriers, wherein the sample container carriers are adapted to carry a laboratory sample container, - a transport plane, wherein the transport plane is adapted to support the sample container carriers, and - a plurality of drive elements, wherein the drive elements are adapted to move the sample container carriers on the transport plane, characterized in that the method comprises the steps: - a) planning a movement path for one of the sample container carriers from a start to a goal on the transport plane, wherein the transport plane is logically modelled by a plurality of nodes, wherein the nodes are free for at least one time-window (fTW) or reserved for at least one-time window (rTW), wherein the planning comprises analyzing the reachability out of a free time-window (fTW) of one of the nodes (ni) to free time-windows (fTW) of at least one next node (nj) and at least one at least over-next node (nk), such that a planned movement of the one sample container carrier is nonstop from the one node (ni) over the next node (nj) to the at least one at least over-next node (nk), and reserving the planned movement path comprising a sequence of time-windows of nodes (111, ni, nj, nk), and - b) executing by controlling at least one of the drive elements, such that the one sample container carrier moves along the reserved movement path on the transport plane. - a plurality of sample container carriers, wherein the sample container carriers are adapted to carry a laboratory sample container, - a transport plane, wherein the transport plane is adapted to support the sample container carriers, and - a plurality of drive elements, wherein the drive elements are adapted to move the sample container carriers on the transport plane, - a) planning a movement path for one of the sample container carriers from a start to a goal on the transport plane, wherein the transport plane is logically modelled by a plurality of nodes, wherein the nodes are free for at least one time-window (fTW) or reserved for at least one-time window (rTW), wherein the planning comprises analyzing the reachability out of a free time-window (fTW) of one of the nodes (ni) to free time-windows (fTW) of at least one next node (nj) and at least one at least over-next node (nk), such that a planned movement of the one sample container carrier is nonstop from the one node (ni) over the next node (nj) to the at least one at least over-next node (nk), and reserving the planned movement path comprising a sequence of time-windows of nodes (111, ni, nj, nk), and - b) executing by controlling at least one of the drive elements, such that the one sample container carrier moves along the reserved movement path on the transport plane.
An optical unit (4, 50, 50A) for guiding a plurality of light beams, comprising two opposing end faces through which the plurality of light beams are transmitted, each of the two end faces comprising a plurality of lens portions, wherein a pitch (Wo, Wi) is defined as a distance between an optical axis of respective adjacent lens portions, wherein the plurality of lens portions are arranged in an arrangement direction that intersects an optical axis direction along which the light beams are transmitted, characterized in that each of the lens portions is inclined with respect to both a thickness direction intersecting the optical axis direction and the arrangement direction, and in that the optical unit has both end faces in the optical axis direction with the pitch (Wo, Wi) at which the lens portions are arranged in one end face being smaller than the pitch (Wi, Wo) at which the lens portions are arranged in another end face. comprising two opposing end faces through which the plurality of light beams are transmitted, each of the two end faces comprising a plurality of lens portions, wherein a pitch (Wo, Wi) is defined as a distance between an optical axis of respective adjacent lens portions, wherein the plurality of lens portions are arranged in an arrangement direction that intersects an optical axis direction along which the light beams are transmitted, characterized in that each of the lens portions is inclined with respect to both a thickness direction intersecting the optical axis direction and the arrangement direction, and in that the optical unit has both end faces in the optical axis direction with the pitch (Wo, Wi) at which the lens portions are arranged in one end face being smaller than the pitch (Wi, Wo) at which the lens portions are arranged in another end face.
An arrangement (21, 71) for minimal invasive intervention, said arrangement (21, 71) comprising - a rotation body (23, 73), said rotation body being adapted to receive a medical instrument (3, 5, 7, 9, 33) for minimal invasive intervention, or said rotation body forming a part of a medical instrument, said medical instrument (3, 5, 7, 9, 33, 83) comprising a shaft (31, 81), at least a portion of a surface of said rotation body (23, 73) comprising a pattern (35, 87, 91) adapted for determining a position of said pattern, said pattern being an optical pattern (35, 87, 91), and - a retaining device (25, 75, 75') adapted to at least partly surround said rotation body (23, 73), such that said rotation body (23, 73) is retained by said retaining device (25, 75, 75') in a manner allowing rotational movement of said rotation body (23, 73) in relation to said retaining device (25, 75, 75'), - at least one position sensor (27, 77, 79) for determining a position in at least two coordinates of said pattern (35, 87, 91) of said rotation body (23, 73), said at least one position sensor (27, 77, 79) being located at, in or on said retaining device (25, 75, 75'), said at least one position sensor (27, 77, 79) being an optical position sensor, such as a camera, characterised in that said pattern (35, 87, 91) comprises information about position in absolute coordinates, so that said position of said rotation body (23, 73) in relation to said retaining device (25, 75, 75') can be determined in absolute coordinates by utilizing said pattern (35, 87, 91). - a rotation body (23, 73), said rotation body being adapted to receive a medical instrument (3, 5, 7, 9, 33) for minimal invasive intervention, or said rotation body forming a part of a medical instrument, said medical instrument (3, 5, 7, 9, 33, 83) comprising a shaft (31, 81), at least a portion of a surface of said rotation body (23, 73) comprising a pattern (35, 87, 91) adapted for determining a position of said pattern, said pattern being an optical pattern (35, 87, 91), and - a retaining device (25, 75, 75') adapted to at least partly surround said rotation body (23, 73), such that said rotation body (23, 73) is retained by said retaining device (25, 75, 75') in a manner allowing rotational movement of said rotation body (23, 73) in relation to said retaining device (25, 75, 75'), - at least one position sensor (27, 77, 79) for determining a position in at least two coordinates of said pattern (35, 87, 91) of said rotation body (23, 73), said at least one position sensor (27, 77, 79) being located at, in or on said retaining device (25, 75, 75'), said at least one position sensor (27, 77, 79) being an optical position sensor, such as a camera, characterised in that said pattern (35, 87, 91) comprises information about position in absolute coordinates, so that said position of said rotation body (23, 73) in relation to said retaining device (25, 75, 75') can be determined in absolute coordinates by utilizing said pattern (35, 87, 91).
Device for filling a shock absorber for a vehicle with a first fluid, said shock absorber comprising a cylinder adapted to accommodate said first fluid, said device having a first state, wherein said device is adapted to provide a vacuum in said cylinder, characterised in that, said device is having a second state, wherein said device is adapted to fill said cylinder with said first fluid, said device comprising: - a hollow body comprising a first body portion and a second body portion; - means for providing a fluid connection between said shock absorber and said hollow body; and - at least one rod arrangement arranged to extend at least partly through said first body portion and said second body portion, and adapted to reciprocate between at least first position and a second position; wherein, when in said first state, said rod arrangement is adapted to remove a second fluid from said cylinder to said hollow body to provide a vacuum in said cylinder, whereby said rod arrangement acts as a vacuum pump by means of said reciprocation between said at least first position and said at least second position, such that a pressure equalization between said first and second body portion alternately takes place. - a hollow body comprising a first body portion and a second body portion; - means for providing a fluid connection between said shock absorber and said hollow body; and - at least one rod arrangement arranged to extend at least partly through said first body portion and said second body portion, and adapted to reciprocate between at least first position and a second position;
A memory device, comprising: a timing circuit to generate and output a clock signal and to distribute the clock signal as a plurality of clock signal outputs from the timing circuit via a clock tree for use in timing operations of the memory device; a voltage regulator to generate a regulated voltage (Vreg); a register to store a programmable value; characterized in that the memory device further comprises a plurality of clock signal generator circuit (30a...e) to each receive one clock signal output of the plurality of clock signal outputs of the clock signal from the timing circuit; wherein each one of the plurality of clock signal generator circuits (30a... e) includes an adjustable delay circuit that receives the respective clock signal output and provides a variable delay in dependence upon the regulated voltage (Vreg) to generate a phase adjusted clock signal (Clk_Rx(n/2)+1....1, Clk_Tx_1...(n/2)); and in that the voltage generator generates the regulated voltage in dependence upon the programmable value. a timing circuit to generate and output a clock signal and to distribute the clock signal as a plurality of clock signal outputs from the timing circuit via a clock tree for use in timing operations of the memory device; a voltage regulator to generate a regulated voltage (Vreg); a register to store a programmable value; characterized in that the memory device further comprises a plurality of clock signal generator circuit (30a...e) to each receive one clock signal output of the plurality of clock signal outputs of the clock signal from the timing circuit; wherein each one of the plurality of clock signal generator circuits (30a... e) includes an adjustable delay circuit that receives the respective clock signal output and provides a variable delay in dependence upon the regulated voltage (Vreg) to generate a phase adjusted clock signal (Clk_Rx(n/2)+1....1, Clk_Tx_1...(n/2)); and in that the voltage generator generates the regulated voltage in dependence upon the programmable value.
A composition for use in a method for treating or preventing myocardial ischemia reperfusion injury in a mammal, wherein the composition comprises neuregulin protein or a functional fragment thereof comprising an EGF-like domain of NRG, and wherein the method comprises administering the composition to the mammal.
Slack line device comprising transportable supporting elements, a ribbon and a strutting, wherein the ribbon is stretchable between the transportable supporting elements and is fixable to one of the supporting elements with its respective end portion, wherein the supporting elements are massive bodies each with a base and a surface, which are spaced to one another by the strutting, characterized in that extending from the surface of the supporting elements, at least one axial recess with a tensioning edge (4.1) is formed in the supporting elements and an end portion of the ribbon is provided, fixed and tensioned in the recess.
A computer-implemented method for authorizing access to a secure resource in a document repository system, the method comprising performing computer-implemented operations for: receiving a runtime request to perform an action on a secure resource in the document repository system; in response to receiving the runtime request, determining whether the runtime request has been made by a user only, by an application only, or by an application on behalf of a user; and performing a response step being configured to: - in response to determining that the runtime request has been made by an application on behalf of a user, granting the runtime request only if the application and the user both have permission to access the secure resource, wherein use of the secure resource is limited to an extend of privileges of the user; - in response to determining that the runtime request has been made by an application only, granting the runtime request only if the application has been granted permission to access the secure resource by way of a direct call that is not on behalf of a user; and - in response to determining that the runtime request has been made by a user only, granting the runtime request only if the user has sufficient privileges to perform the requested action. receiving a runtime request to perform an action on a secure resource in the document repository system; in response to receiving the runtime request, determining whether the runtime request has been made by a user only, by an application only, or by an application on behalf of a user; and performing a response step being configured to: - in response to determining that the runtime request has been made by an application on behalf of a user, granting the runtime request only if the application and the user both have permission to access the secure resource, wherein use of the secure resource is limited to an extend of privileges of the user; - in response to determining that the runtime request has been made by an application only, granting the runtime request only if the application has been granted permission to access the secure resource by way of a direct call that is not on behalf of a user; and - in response to determining that the runtime request has been made by a user only, granting the runtime request only if the user has sufficient privileges to perform the requested action. - in response to determining that the runtime request has been made by an application on behalf of a user, granting the runtime request only if the application and the user both have permission to access the secure resource, wherein use of the secure resource is limited to an extend of privileges of the user; - in response to determining that the runtime request has been made by an application only, granting the runtime request only if the application has been granted permission to access the secure resource by way of a direct call that is not on behalf of a user; and - in response to determining that the runtime request has been made by a user only, granting the runtime request only if the user has sufficient privileges to perform the requested action.
A computer-implemented process comprising: receiving information describing input points from a multi-pointer indirect input device for a plurality of frames into memory, each input point of the input points having a location in a device coordinate space for the multi-pointer indirect input device; obtaining a movement mapping of the input points from the device coordinate space to a display coordinate space for a display by mapping the input points for one of the frames of the plurality of frames from the locations in the device coordinate space to locations in the display coordinate space; determining (502, 600) displacement of each of the input points in the one of the frames of the plurality of frames with respect to a position of one or more input points in a previous frame of the plurality of frames; identifying (504, 602) one input point of the input points in the one of the frames of the plurality of frames with a least displacement; adjusting (510, 612) the movement mapping of the input points in the one of the frames of the plurality of frames using the identified least displacement, comprising determining an offset according to the least displacement and, for each input point of the input points, adding the offset to its mapped location; and displaying points on the display according to the adjusted movement mapping of the input points. receiving information describing input points from a multi-pointer indirect input device for a plurality of frames into memory, each input point of the input points having a location in a device coordinate space for the multi-pointer indirect input device; obtaining a movement mapping of the input points from the device coordinate space to a display coordinate space for a display by mapping the input points for one of the frames of the plurality of frames from the locations in the device coordinate space to locations in the display coordinate space; determining (502, 600) displacement of each of the input points in the one of the frames of the plurality of frames with respect to a position of one or more input points in a previous frame of the plurality of frames; identifying (504, 602) one input point of the input points in the one of the frames of the plurality of frames with a least displacement; adjusting (510, 612) the movement mapping of the input points in the one of the frames of the plurality of frames using the identified least displacement, comprising determining an offset according to the least displacement and, for each input point of the input points, adding the offset to its mapped location; and
A probe assembly and associated addressing means for selecting one of the probes in the assembly for use in a scanning probe microscope, wherein: the probe assembly comprises a carrier having a first plurality of at least three substantially identical probes, each probe having a resilient supporting beam and a tip, the tip being located on a plane that is common to the plurality of probe tips, said tip being moveable from this plane; and the addressing means includes at least one additional layer applied to each supporting beam, the additional layer being formed from a material that is different from that of the supporting beam, thereby forming a multilayered structure comprising at least two layers with differing thermal expansion, and characterised in that the addressing means also includes a remote light source and is adapted to select one of the plurality of probes for relative movement with respect to a majority of the remainder of the probes by heating the multilayered material by means of the remote light source. the probe assembly comprises a carrier having a first plurality of at least three substantially identical probes, each probe having a resilient supporting beam and a tip, the tip being located on a plane that is common to the plurality of probe tips, said tip being moveable from this plane; and the addressing means includes at least one additional layer applied to each supporting beam, the additional layer being formed from a material that is different from that of the supporting beam, thereby forming a multilayered structure comprising at least two layers with differing thermal expansion, and characterised in that the addressing means also includes a remote light source and is adapted to select one of the plurality of probes for relative movement with respect to a majority of the remainder of the probes by heating the multilayered material by means of the remote light source.
Papermaking dryer fabric comprising a system of MD yarns interwoven with a system of CMD yarns (3, 3a, 3b) in a single layer weave, said MD yarns comprise groups of MD yarns (4, 4', 4", 4"'), wherein each of said groups of MD yarns (4, 4', 4", 4"') being formed by a plurality of adjacent MD yarns weaving in said group side-by-side the same weave path with said CMD yarns (3, 3a, 3b), wherein said dryer fabric is flat woven with seaming loops which are arranged at the widthwise edges of the fabric to make it endless and wherein at least some of said seaming loops are formed by at least some MD yarns of said groups of MD yarns (4, 4', 4", 4"') and said dryer fabric has an air permeability between 390 m 3 /(m 2 ·h) and 3120 m 3 /(m 2 ·h) (corresponding to: 25 cfm and 200 cfm), wherein all of said CMD yarns (3, 3a, 3b) have a non-circular cross section with a width to height ratio of more than 1, characterized in that said MD yarns forming said groups of MD yarns (4, 4', 4", 4"') have a circular cross section and that said CMD yarns (3, 3a, 3b) are ungrouped CMD yarns (3, 3a, 3b) and that the non-circular cross section is a bone-like or double convex shaped cross section.
A method for preparing di- or tri-substituted olefins comprising contacting a first substituted or unsubstituted electron deficient olefin with a second substituted or unsubstituted electron deficient olefin in the presence of a metal carbene metathesis catalyst, wherein the first olefin is a substituted or unsubstituted styrene and wherein the second olefin is an α-functionalized olefin and wherein the catalyst is of the formula: wherein: M is ruthenium or osmium; X and X 1 are each independently an anionic ligand; L is a neutral electron donor ligand; and R, R 1 R 6, R 7, R 8, and R 9 are each independently hydrogen or a substituent selected from C 1 -C 20 alkyl, C 2 -C 20 alkenyl, C 2 -C 20 alkynyl, aryl, C 1 -C 20 carboxylate, C 1 -C 20 alkoxy, C 2 -C 20 alkenyloxy, C 2 -C 20 alkynyloxy, aryloxy, C 2 -C 20 alkoxycarbonyl, C 1 -C 20 alkylthio, C 1 -C 20 alkylsulfonyl and C 1 -C 20 alkylsulfinyl, the substituent optionally substituted with one or more moieties selected from C 1 -C 10 alkyl, C 1 -C 10 alkoxy, aryl, wherein any of the catalyst ligands optionally further includes one or more functional groups selected from hydroxyl, thiol, thioether, ketone, aldehyde, ester, ether, amine, imine, amide, nitro, carboxylic acid, disulfide, carbonate, isocyanate, carbodiimide, carboalkoxy, carbamate, and halogen. M is ruthenium or osmium; X and X 1 are each independently an anionic ligand; L is a neutral electron donor ligand; and R, R 1 R 6, R 7, R 8, and R 9 are each independently hydrogen or a substituent selected from C 1 -C 20 alkyl, C 2 -C 20 alkenyl, C 2 -C 20 alkynyl, aryl, C 1 -C 20 carboxylate, C 1 -C 20 alkoxy, C 2 -C 20 alkenyloxy, C 2 -C 20 alkynyloxy, aryloxy, C 2 -C 20 alkoxycarbonyl, C 1 -C 20 alkylthio, C 1 -C 20 alkylsulfonyl and C 1 -C 20 alkylsulfinyl, the substituent optionally substituted with one or more moieties selected from C 1 -C 10 alkyl, C 1 -C 10 alkoxy, aryl, wherein any of the catalyst ligands optionally further includes one or more functional groups selected from hydroxyl, thiol, thioether, ketone, aldehyde, ester, ether, amine, imine, amide, nitro, carboxylic acid, disulfide, carbonate, isocyanate, carbodiimide, carboalkoxy, carbamate, and halogen.