mhurhangee/ep-ind-claims huggingface dataset:
A method for acquiring and forming a spectrometry image (Pict) of a sample, comprising the following steps: a) digitally acquiring an initial structural image of an area of the sample, the initial structural image including pixels arranged into lines and columns; b) digitally processing the initial structural image to decompose said initial structural image into at least one first block of pixels associated with a first spatial sampling pitch and a second block of pixels associated with a second spatial sampling pitch, the first spatial sampling pitch being higher than the second spatial sampling pitch, so as to determine a multi-scale spatial sampling of said area of the sample; c) determining a plurality of spectrometry measurement positions (Xi, Yj) in said area of the sample, as a function of the multi-scale spatial sampling determined at step b); d) successively, for each spectrometry measurement position (Xi, Yj) of the plurality of spectrometry measurement positions determined at step c), positioning an excitation beam at a spectrometry measurement position (Xi, Yj) and acquiring a spectrometry measurement for said spectrometry measurement position (Xi, Yj); e) reconstructing a spectrometry image (Pict) point by point, each point of the reconstructed spectrometry image (Pict) being obtained from one or several spectrometry measurements acquired at step d). a) digitally acquiring an initial structural image of an area of the sample, the initial structural image including pixels arranged into lines and columns; b) digitally processing the initial structural image to decompose said initial structural image into at least one first block of pixels associated with a first spatial sampling pitch and a second block of pixels associated with a second spatial sampling pitch, the first spatial sampling pitch being higher than the second spatial sampling pitch, so as to determine a multi-scale spatial sampling of said area of the sample; c) determining a plurality of spectrometry measurement positions (Xi, Yj) in said area of the sample, as a function of the multi-scale spatial sampling determined at step b); d) successively, for each spectrometry measurement position (Xi, Yj) of the plurality of spectrometry measurement positions determined at step c), positioning an excitation beam at a spectrometry measurement position (Xi, Yj) and acquiring a spectrometry measurement for said spectrometry measurement position (Xi, Yj); e) reconstructing a spectrometry image (Pict) point by point, each point of the reconstructed spectrometry image (Pict) being obtained from one or several spectrometry measurements acquired at step d).
Baking pan for baking a baking mass, in particular a cake mass, a yeast mass or other masses rich in protein - with at least one bottom surface and at least one upper opening, wherein the bottom surface and the upper opening are opposite each other and the distance between the bottom surface and the upper opening corresponds to the height h B of the baking pan; - with at least one circular or elliptical side wall or four side walls a, b, c, d, each extending from and connecting the bottom surface and the upper opening; - with at least one continuous bar-shaped elevation of height h E extending from the bottom surface in the direction of the upper opening, which runs along the bottom surface and divides the bottom surface into at least two segments, wherein the height h E of the at least one bar-shaped elevation is between 1/3 and 4/5, preferably 1/3 to 2/3 of the total height h B of the baking pan, characterized in that the at least one bar-shaped elevation is formed integrally with the baking pan, and the at least one bar-shaped elevation is blackened to increase heat transfer and the bottom surface and the side walls are not blackened, so that the at least one bar -shaped elevation has an increased heat transfer than the bottom surface and/or side walls of the baking pan. - with at least one bottom surface and at least one upper opening, wherein the bottom surface and the upper opening are opposite each other and the distance between the bottom surface and the upper opening corresponds to the height h B of the baking pan; - with at least one circular or elliptical side wall or four side walls a, b, c, d, each extending from and connecting the bottom surface and the upper opening; - with at least one continuous bar-shaped elevation of height h E extending from the bottom surface in the direction of the upper opening, which runs along the bottom surface and divides the bottom surface into at least two segments, wherein the height h E of the at least one bar-shaped elevation is between 1/3 and 4/5, preferably 1/3 to 2/3 of the total height h B of the baking pan, the at least one bar-shaped elevation is formed integrally with the baking pan, and the at least one bar-shaped elevation is blackened to increase heat transfer and the bottom surface and the side walls are not blackened, so that the at least one bar -shaped elevation has an increased heat transfer than the bottom surface and/or side walls of the baking pan.
A compound having the structural formula wherein each of R 1 and R 2 is an isopropyl or R 1 and R 2 together form a pyrrolidine heterocyclic ring with N to which they are attached; R 3 is an acid-labile protecting group; R' is a group selected from a cyanoethyl group and a methyl group; and B is a protected nucleobase selected from: each of R 1 and R 2 is an isopropyl or R 1 and R 2 together form a pyrrolidine heterocyclic ring with N to which they are attached; R 3 is an acid-labile protecting group; R' is a group selected from a cyanoethyl group and a methyl group; and B is a protected nucleobase selected from:
Device for driving at least one mover (200, 200') on a drive surface, the mover (200, 200') comprising at least one second magnetic field generator, the drive surface having a number of plate-shaped sectors, the sectors having magnetic field generators, the sectors being connected to a control unit, the control unit being designed to generate magnetic fields by way of corresponding control of a power supply of the magnetic field generators of the sectors in such a way that the mover (200, 200') is movable in at least one direction over the drive surface, the control unit being designed to carry out path planning for the mover (200, 200') from a starting point (507, 507') to a target point (508, 508') and the control unit being designed to activate the magnetic field generators of the sectors with current in such a way that the mover (200, 200') can be moved over the drive surface (510, 10) along the determined path (511, 511'), characterized in that the control unit is designed to use at least one graph (503, 519, 520) with nodes (505, 522, 524) and edges (504, 523, 521) for the path planning, the graph (503, 519, 520) having a greater density of edges (504, 521, 523) and/or a greater density of nodes (505, 522, 524) and/or a smaller average length of the edges (504, 521, 523) in a predetermined surrounding area around the position of the mover (200, 200') than outside the surrounding area.
A holder for holding a substrate, the holder comprising: a base including a first surface arranged to receive the substrate to be held by the holder, a second surface opposite to the first surface, and a through hole (302, 304); a first support (306, 308) formed on the second surface and arranged to surround the through hole (302, 304) and configured to contact a table; a second support with continuous circumferential shape formed on the second surface and arranged to surround the first support (306, 308) and to contact the table; and a plurality of first pins formed in a region of the second surface between the second support and an outer edge of the base and arranged to contact the table. a base including a first surface arranged to receive the substrate to be held by the holder, a second surface opposite to the first surface, and a through hole (302, 304); a first support (306, 308) formed on the second surface and arranged to surround the through hole (302, 304) and configured to contact a table; a second support with continuous circumferential shape formed on the second surface and arranged to surround the first support (306, 308) and to contact the table; and a plurality of first pins formed in a region of the second surface between the second support and an outer edge of the base and arranged to contact the table.
A detachable second apparatus coupled to a first apparatus that determines a first three-dimensional shape of an object located on a reference plane, and configured to determine an angle of an upper surface of the object with respect to the reference plane, the second apparatus comprising: a first light source configured to sequentially irradiate one or more first pattern lights having one phase range; a beam splitter and one or more lenses configured to change optical paths of the one or more first pattern lights so that a beam of light corresponding to a respective phase of the phase range spreads, and arrives at each point of a partial region of the upper surface of the object; a communication interface configured to communicate with the first apparatus; and a first processor that is electrically connected to the first light source and the communication interface, and that is configured to: obtain, from the first apparatus, first information on one or more first reflected lights generated by reflecting the one or more first pattern lights from the partial region; and determine the angle of the upper surface with respect to the reference plane based on the first information, wherein the first information includes information indicating each light amount value of the one or more first reflected lights. a first light source configured to sequentially irradiate one or more first pattern lights having one phase range; a beam splitter and one or more lenses configured to change optical paths of the one or more first pattern lights so that a beam of light corresponding to a respective phase of the phase range spreads, and arrives at each point of a partial region of the upper surface of the object; a communication interface configured to communicate with the first apparatus; and a first processor that is electrically connected to the first light source and the communication interface, and that is configured to: obtain, from the first apparatus, first information on one or more first reflected lights generated by reflecting the one or more first pattern lights from the partial region; and determine the angle of the upper surface with respect to the reference plane based on the first information, wherein the first information includes information indicating each light amount value of the one or more first reflected lights. obtain, from the first apparatus, first information on one or more first reflected lights generated by reflecting the one or more first pattern lights from the partial region; and determine the angle of the upper surface with respect to the reference plane based on the first information, wherein the first information includes information indicating each light amount value of the one or more first reflected lights.
A computer-implemented method of inspecting network traffic, comprising: determining that a traffic flow satisfies a first condition; transmitting a first portion of the traffic flow to a network service based on the determining the traffic flow satisfies the first condition; inspecting, at the network service, the first portion of the traffic flow at a first level of detail based on the first condition; determining, based on the inspecting, that the traffic flow satisfies a second condition; transmitting a second portion of the traffic flow to the network service based on the determining the traffic flow satisfies the second condition; inspecting, at the network service, the second portion of the traffic flow at a second level of detail, wherein the inspecting at the second level of detail requires a different amount of computing resources than the inspecting at the first level of detail, wherein the second portion of the traffic flow comprises a larger amount of information than the first portion of the traffic flow. determining that a traffic flow satisfies a first condition; transmitting a first portion of the traffic flow to a network service based on the determining the traffic flow satisfies the first condition; inspecting, at the network service, the first portion of the traffic flow at a first level of detail based on the first condition; determining, based on the inspecting, that the traffic flow satisfies a second condition; transmitting a second portion of the traffic flow to the network service based on the determining the traffic flow satisfies the second condition; inspecting, at the network service, the second portion of the traffic flow at a second level of detail, wherein the inspecting at the second level of detail requires a different amount of computing resources than the inspecting at the first level of detail, wherein the second portion of the traffic flow comprises a larger amount of information than the first portion of the traffic flow.
Lincosamides of general formula I wherein R1 is selected from C2-C8 alkyl or C2-C8 alkenyl; R3 is selected from OH, O(C1-C4 alkyl), SH, S(C1-C4 alkyl) or halogen; R4 is H or C1-C3 alkyl; each of R21, R22, R23, R24, R25 is independently selected from the group consisting of H, OH, C1-C4 alkyl, C2-C4 alkenyl, C2-C4 alkynyl, halogen, O(C1-C4 alkyl), O(C2-C4 alkenyl), O(C2-C4 alkynyl), NH 2, N(C1-C4 alkyl) 2, N(C2-C4 alkenyl) 2, N(C2-C4 alkynyl) 2; and pharmaceutically acceptable salts thereof. R1 is selected from C2-C8 alkyl or C2-C8 alkenyl; R3 is selected from OH, O(C1-C4 alkyl), SH, S(C1-C4 alkyl) or halogen; R4 is H or C1-C3 alkyl; each of R21, R22, R23, R24, R25 is independently selected from the group consisting of H, OH, C1-C4 alkyl, C2-C4 alkenyl, C2-C4 alkynyl, halogen, O(C1-C4 alkyl), O(C2-C4 alkenyl), O(C2-C4 alkynyl), NH 2, N(C1-C4 alkyl) 2, N(C2-C4 alkenyl) 2, N(C2-C4 alkynyl) 2; and pharmaceutically acceptable salts thereof.
A battery, comprising: a battery module and a box body, the battery module being accommodated in the box body; the battery module comprising: N rows of battery cells, each row of battery cells in the N rows of battery cells comprising a plurality of battery cells arranged along a first direction, the N rows of battery cells arranged along a second direction, N being an integer greater than 1, and the first direction being perpendicular to the second direction; N-1 spacer plate(s), the spacer plate extending along the first direction and disposed between two adjacent rows of battery cells, and the spacer plate fixedly connected to each of the battery cells in the two rows of the battery cells; wherein a fixing structure is provided on an end portion of the spacer plate in the first direction, and the spacer plate is fixed to the box body via the fixing structure; and wherein the fixing structure comprises a fixing plate, and the fixing plate is fixedly connected to the end portion of the spacer plate, and is fixedly connected to a battery cell located at the end portion of the spacer plate. a battery module and a box body, the battery module being accommodated in the box body; the battery module comprising: N rows of battery cells, each row of battery cells in the N rows of battery cells comprising a plurality of battery cells arranged along a first direction, the N rows of battery cells arranged along a second direction, N being an integer greater than 1, and the first direction being perpendicular to the second direction; N-1 spacer plate(s), the spacer plate extending along the first direction and disposed between two adjacent rows of battery cells, and the spacer plate fixedly connected to each of the battery cells in the two rows of the battery cells; wherein a fixing structure is provided on an end portion of the spacer plate in the first direction, and the spacer plate is fixed to the box body via the fixing structure; and wherein the fixing structure comprises a fixing plate, and the fixing plate is fixedly connected to the end portion of the spacer plate, and is fixedly connected to a battery cell located at the end portion of the spacer plate. N rows of battery cells, each row of battery cells in the N rows of battery cells comprising a plurality of battery cells arranged along a first direction, the N rows of battery cells arranged along a second direction, N being an integer greater than 1, and the first direction being perpendicular to the second direction; N-1 spacer plate(s), the spacer plate extending along the first direction and disposed between two adjacent rows of battery cells, and the spacer plate fixedly connected to each of the battery cells in the two rows of the battery cells; wherein a fixing structure is provided on an end portion of the spacer plate in the first direction, and the spacer plate is fixed to the box body via the fixing structure; and wherein the fixing structure comprises a fixing plate, and the fixing plate is fixedly connected to the end portion of the spacer plate, and is fixedly connected to a battery cell located at the end portion of the spacer plate.
Hotplate device, in particular induction hotplate device, having at least one heating unit, which has at least one heating element which is provided for heating a cooking utensil placed thereon, wherein the heating element at least partially has an at least substantially canal-like shape in at least one cross-sectional plane, characterised in that the heating element has a maximum internal diameter of 4 mm in the at least one cross-sectional plane, wherein the heating element has a minimum internal diameter of 0.2 mm in the at least one cross-sectional plane, wherein the heating element has a maximum external diameter of 6 mm in the at least one cross-sectional plane and wherein the heating element has a minimum external diameter of at least 1 mm in the at least one cross-sectional plane.
A method for configuring a system of devices, the system of devices including two or more Data Center Ethernet, DCE, edge switches in a network of layer 2 switches and a non-DCE device that uses a Spanning Tree protocol connected to the two or more DCE edge switches (302, 304), the method comprising the steps of: creating an emulated switch between the non-DCE device and the two or more DCE edge switches (302, 304), wherein a first link connects the non-DCE device to a first DCE edge switch among the two or more DCE edge switches (302, 304) and a second link connects the non-DCE device to a second DCE edge switch among the two or more DCE edge switches (302, 304), the emulated switch appearing to be connected to the first link between the first DCE edge switch and the non-DCE device, the emulated switch further appearing to be connected to the second link between the second DCE edge switch and the non-DCE device, links to the emulated switch appearing as a single port of the emulated switch to the network of layer 2 switches; and configuring each of the two or more DCE edge switches (302, 304) such that the emulated switch is viewed as having equidistant path routes from each of the two or more DCE edge switches (302, 304) and as part of the network of layer 2 switches; whereby if the first link between the first DCE edge switch and the non-DCE device is inoperable, a unicast frame received at the first DCE edge switch can be transferred to the second DCE edge switch for forwarding of the unicast frame to the non-DCE device. creating an emulated switch between the non-DCE device and the two or more DCE edge switches (302, 304), wherein a first link connects the non-DCE device to a first DCE edge switch among the two or more DCE edge switches (302, 304) and a second link connects the non-DCE device to a second DCE edge switch among the two or more DCE edge switches (302, 304), the emulated switch appearing to be connected to the first link between the first DCE edge switch and the non-DCE device, the emulated switch further appearing to be connected to the second link between the second DCE edge switch and the non-DCE device, links to the emulated switch appearing as a single port of the emulated switch to the network of layer 2 switches; and configuring each of the two or more DCE edge switches (302, 304) such that the emulated switch is viewed as having equidistant path routes from each of the two or more DCE edge switches (302, 304) and as part of the network of layer 2 switches;
Method for controlled pressure reduction via at least one pressure supply unit of a brake system, wherein a brake pressure of the brake system is reduced using a pressure supply unit with a double-stroke piston which divides a working space into a first working chamber and a second working chamber, wherein a controlled pressure reduction takes place in at least one wheel brake (RB1, RB2, RB3, RB4) via a pressure volume control, characterized a) in that the following steps are carried out to reduce the pressure: - establishing a fluid connection between the at least one wheel brake (RB1, RB2, RB3, RB4) via an open switching valve (SV1, SV2) assigned to the respective at least one wheel brake (RB1, RB2, RB3, RB4) and the first working chamber; - return stroke of the double-stroke piston to increase the volume of the first working chamber, and/or b) in that the following steps are carried out to reduce the pressure: - establishing a fluid connection between the at least one wheel brake (RB1, RB2, RB3, RB4) via the open switch valve (SV1, SV2) assigned to the respective at least one wheel brake (RB1, RB2, RB3, RB4) and the second working chamber; - opening a first switchable valve to establish a fluid connection between the reservoir and the first working chamber; - pre-stroke of the double-stroke piston to increase the volume of the second working chamber. a) in that the following steps are carried out to reduce the pressure: - establishing a fluid connection between the at least one wheel brake (RB1, RB2, RB3, RB4) via an open switching valve (SV1, SV2) assigned to the respective at least one wheel brake (RB1, RB2, RB3, RB4) and the first working chamber; - return stroke of the double-stroke piston to increase the volume of the first working chamber, and/or - establishing a fluid connection between the at least one wheel brake (RB1, RB2, RB3, RB4) via an open switching valve (SV1, SV2) assigned to the respective at least one wheel brake (RB1, RB2, RB3, RB4) and the first working chamber; - return stroke of the double-stroke piston to increase the volume of the first working chamber, and/or b) in that the following steps are carried out to reduce the pressure: - establishing a fluid connection between the at least one wheel brake (RB1, RB2, RB3, RB4) via the open switch valve (SV1, SV2) assigned to the respective at least one wheel brake (RB1, RB2, RB3, RB4) and the second working chamber; - opening a first switchable valve to establish a fluid connection between the reservoir and the first working chamber; - pre-stroke of the double-stroke piston to increase the volume of the second working chamber. - establishing a fluid connection between the at least one wheel brake (RB1, RB2, RB3, RB4) via the open switch valve (SV1, SV2) assigned to the respective at least one wheel brake (RB1, RB2, RB3, RB4) and the second working chamber; - opening a first switchable valve to establish a fluid connection between the reservoir and the first working chamber; - pre-stroke of the double-stroke piston to increase the volume of the second working chamber.