mhurhangee/ep-ind-claims huggingface dataset:
A lithographic apparatus comprising: an illumination system configured to condition a radiation beam; a support configured to support a patterning device, the patterning device being capable of imparting the radiation beam with a pattern in its cross-section to form a patterned radiation beam; a substrate table configured to hold a substrate; a projection system configured to project the patterned radiation beam onto a target portion of the substrate, an alignment apparatus configured to align the substrate according to an alignment strategy, prior to the projection of the patterned radiation beam onto a target portion of the substrate; and a scanning control module configured to control at least one of the support, substrate table, and projection system by periodically retrieving measurements that define baseline control parameters from one or more monitor wafers to determine a parameter drift from the baseline control, the one or more wafers having been exposed using a first alignment strategy; wherein the apparatus is configured to, when exposing a production substrate using a second alignment strategy different from the first alignment strategy determine a parameter drift from the baseline control parameters and to make a correction based on the determination, characterized in that the scanning control module is configured to determine a difference between effects of the second and first alignment strategies during exposure of a substrate and to use the difference to make an adjustment to the correction. an illumination system configured to condition a radiation beam; a support configured to support a patterning device, the patterning device being capable of imparting the radiation beam with a pattern in its cross-section to form a patterned radiation beam; a substrate table configured to hold a substrate; a projection system configured to project the patterned radiation beam onto a target portion of the substrate, an alignment apparatus configured to align the substrate according to an alignment strategy, prior to the projection of the patterned radiation beam onto a target portion of the substrate; and a scanning control module configured to control at least one of the support, substrate table, and projection system by periodically retrieving measurements that define baseline control parameters from one or more monitor wafers to determine a parameter drift from the baseline control, the one or more wafers having been exposed using a first alignment strategy; wherein the apparatus is configured to, when exposing a production substrate using a second alignment strategy different from the first alignment strategy determine a parameter drift from the baseline control parameters and to make a correction based on the determination, characterized in that the scanning control module is configured to determine a difference between effects of the second and first alignment strategies during exposure of a substrate and to use the difference to make an adjustment to the correction.
An automatic beverage cooler, which is comprising: - a housing with a peripheral wall forming a tank with a top access opening, the tank being at least partially filled with a cooling liquid; - a support platform assembly for supporting a plurality of beverage containers, the support platform assembly being displaceable into and out of the tank; - a displacement mechanism coupled to the support platform assembly, capable of displacing it into and out of the tank; - a cooling circuit for the cooling liquid; - temperature detectors for measuring the temperature of the beverage inside at least one container when the latter is immersed in the cooling liquid in the tank, and - a control station that is configured to control the displacement mechanism and the cooling circuit, with a user's interface for input of a desired beverage-cooling temperature; wherein the control station is configured to receive information about the temperature of the beverage in the container, sent by the temperature detectors, and to actuate the displacement mechanism to displace the support platform assembly out of the tank when the beverage temperature reaches the value of the desired cooling temperature. - a housing with a peripheral wall forming a tank with a top access opening, the tank being at least partially filled with a cooling liquid; - a support platform assembly for supporting a plurality of beverage containers, the support platform assembly being displaceable into and out of the tank; - a displacement mechanism coupled to the support platform assembly, capable of displacing it into and out of the tank; - a cooling circuit for the cooling liquid; - temperature detectors for measuring the temperature of the beverage inside at least one container when the latter is immersed in the cooling liquid in the tank, and - a control station that is configured to control the displacement mechanism and the cooling circuit, with a user's interface for input of a desired beverage-cooling temperature;
A digital transmission system for performing transmission and reception of a signal between a transmitter side network and a receiver side network, the transmitter side network comprising at least a client device and a transmission device, and for rate-adjusting a client signal transmitted from the client device to the transmission device as necessary and accommodating, or multiplexing, to an accommodation rate, the accommodation rate being a given bit rate in the digital transmission system between the transmitter side network and the receiver side network, wherein the transmission device comprises: a rate adjusting unit, to perform rate adjustment of the client signal to a bit rate that can be accommodated in the accommodation rate, and such that the client signal can be recovered from the rate adjusted client signal, which rate adjustment is performed by adding an overhead with a predetermined fixed length to the client signal and encapsulating the client signal in a frame structure comprising the overhead with a predetermined fixed length and a payload containing the client signal, and adding an idle pattern as necessary to achieve the rate adjustment, to the encapsulated client signal, wherein length of the idle pattern changes according to the bit rate of the client signal, wherein the frame structure, comprising an overhead having a predetermined fixed length and a payload, is a Generic Framing Procedure, GFP, frame structure; and a framer processing unit for accommodating, or multiplexing, the rate-adjusted encapsulated client signal to the accommodation rate, wherein a bit string of the client signal is accommodated, or multiplexed, directly in the payload portion, wherein in the rate adjusting unit, a predetermined area is provided in the header portion of the GFP frame structure; a predetermined bit pattern is accommodated in the predetermined area; and a bit error rate is estimated by counting a bit error of the predetermined area in the receiver side network, the idle pattern is used to establish frame synchronization, to perform performance monitoring of the rate-adjusted client signal in the rate adjusting unit.
Microscope having a main beam path and two observation beam paths (3a, 3b), a main objective for observing an object, an illumination beam path with an illumination axis, with an illumination device which comprises a light source, an illuminating optical device for illuminating the object and a shutter, and having a deflector the diameter of which exceeds the spacing of the two observation beam paths (3a, 3b), which is arranged in the main beam path and provided with a mirror finish, and by means of which the light from the light source is deflected out of the illumination beam path through the main objective onto the object, the shutter being arranged between the light source and the deflector, characterised in that the observation beam paths (3a, 3b) are passed through two circular free apertures (2a, 2b) in the deflector which are provided outside the axis of the main beam path and the shutter is arranged to be movable radially with respect to the axis of the illumination beam path such that the illumination beam path is moved towards the main beam path and in this way different illumination angles can be selected, and in that the shutter is additionally embodied to be axially movable in the illumination beam path and rotatable about the axis of the illumination beam path.
A method of selecting patients having lung or breast cancer that are suitable for a defined treatment, the method comprising the steps of: (a) measuring the amount of S100A8/A9 protein present in samples previously obtained from patients having lung or breast cancer; (b) assessing whether the measured amount of S100A8/A9 protein is less than a predetermined standard value, or above said predetermined standard value; and (c) selecting patients from whose samples the measured amount is less than the predetermined standard value for administration of a cytotoxic chemotherapy agent, and selecting patients from whose samples the measured amount is above the predetermined standard value for administration of chemotherapy agents that are directed to one or more components of a TNF alpha - CXCL1/2 - S100A8/A9 survival axis; wherein said chemotherapy agents are directed to one or more targets selected from the group consisting of the chemokines CXCL1/2/3/8 and their receptors CXCR1/2, the cytokine TNF-alpha and its receptor TNFR, the factors S100A8/A9 and their receptors RAGE and TLR4. (a) measuring the amount of S100A8/A9 protein present in samples previously obtained from patients having lung or breast cancer; (b) assessing whether the measured amount of S100A8/A9 protein is less than a predetermined standard value, or above said predetermined standard value; and (c) selecting patients from whose samples the measured amount is less than the predetermined standard value for administration of a cytotoxic chemotherapy agent, and selecting patients from whose samples the measured amount is above the predetermined standard value for administration of chemotherapy agents that are directed to one or more components of a TNF alpha - CXCL1/2 - S100A8/A9 survival axis; wherein said chemotherapy agents are directed to one or more targets selected from the group consisting of the chemokines CXCL1/2/3/8 and their receptors CXCR1/2, the cytokine TNF-alpha and its receptor TNFR, the factors S100A8/A9 and their receptors RAGE and TLR4.
A shelf made of cardboard, comprising a carrier and at least one shelf base which is held by the carrier, wherein the carrier comprises two side walls, each with an outer layer, and an inner layer facing the respective other side wall, wherein the shelf base comprises a base surface and at each of two lateral edges of the base surface is connected to one each of the side walls by way of a tab which is pushed through an opening in the inner layer of this side wall, so that a projection of the tab lies on a lower edge of the opening, wherein a reinforcement layer which at least largely covers the base surface lies on the base surface, wherein the reinforcement layer comprises two continuations which lie over the tabs, widen the reinforcement layer at two lateral edges and project over the projection of each one of the tabs into the opening which receives the respective tab, characterised in that the base surface and the reinforcement layer are formed as one piece from a common blank of cardboard and are connected to one another at a front or rear edge of the base surface and of the reinforcement layer via at least one crease line, wherein the reinforcement layer further comprises at least two crease lines (25; 25') which are predetermined by weakenings which are situated within an outline of the base surface and which permit the folding of the reinforcement layer such that a distance between the two continuations is reduced.
A sealant sheet formed in a sheet shape, the sealant sheet comprising the following components: an epoxy group-containing polysulfide polymer having two or more epoxy groups per molecule, and a thiol compound having two or more thiol groups per molecule; wherein sulfur atoms in organic components of the sealant sheet have a weight fraction of 32.0 % or higher and 36.0 % or lower; wherein the sealant sheet has a storage modulus of greater than 0.005 MPa at 25°C; wherein the epoxy group-containing polysulfide polymer is a reaction product of a thiol group-containing polysulfide (a) having a disulfide structure and a thiol group in one molecule and an epoxy compound (b) having two or more epoxy groups in one molecule; and wherein the epoxy compound (b) comprises a bifunctional epoxy compound having two epoxy groups in one molecule, and a polyfunctional epoxy compound having three or more epoxy groups in one molecule. an epoxy group-containing polysulfide polymer having two or more epoxy groups per molecule, and a thiol compound having two or more thiol groups per molecule; wherein sulfur atoms in organic components of the sealant sheet have a weight fraction of 32.0 % or higher and 36.0 % or lower; wherein the sealant sheet has a storage modulus of greater than 0.005 MPa at 25°C; wherein the epoxy group-containing polysulfide polymer is a reaction product of a thiol group-containing polysulfide (a) having a disulfide structure and a thiol group in one molecule and an epoxy compound (b) having two or more epoxy groups in one molecule; and wherein the epoxy compound (b) comprises a bifunctional epoxy compound having two epoxy groups in one molecule, and a polyfunctional epoxy compound having three or more epoxy groups in one molecule.
A method for acquiring information, comprising: acquiring position information and signal strength information of multiple positions on a moving path of an electric scooter unlocked by a account, wherein the signal strength information is used for indicating a signal strength of a wireless signal at the multiple positions; establishing a corresponding relationship between the position information and the signal strength information along the moving path of the electric scooter; and, sending the corresponding relationship to a client logged in by using the account to display the location information and the signal strength information on the client; wherein after sending the corresponding relationship to the client logged in by using the account, the method further comprises: detecting that signal strength of the wireless signal at a second position where the electric scooter is located is less than a threshold after ending use of the electric scooter through the account; determining a third position on the movement path according to the established corresponding relationship, wherein signal strength of the wireless signal at the third position is greater than or equal to the threshold; and, controlling the electric scooter to move from the second position to the third position by a motor of the electric scooter. acquiring position information and signal strength information of multiple positions on a moving path of an electric scooter unlocked by a account, wherein the signal strength information is used for indicating a signal strength of a wireless signal at the multiple positions; establishing a corresponding relationship between the position information and the signal strength information along the moving path of the electric scooter; and, sending the corresponding relationship to a client logged in by using the account to display the location information and the signal strength information on the client; wherein after sending the corresponding relationship to the client logged in by using the account, the method further comprises: detecting that signal strength of the wireless signal at a second position where the electric scooter is located is less than a threshold after ending use of the electric scooter through the account; determining a third position on the movement path according to the established corresponding relationship, wherein signal strength of the wireless signal at the third position is greater than or equal to the threshold; and, controlling the electric scooter to move from the second position to the third position by a motor of the electric scooter. detecting that signal strength of the wireless signal at a second position where the electric scooter is located is less than a threshold after ending use of the electric scooter through the account; determining a third position on the movement path according to the established corresponding relationship, wherein signal strength of the wireless signal at the third position is greater than or equal to the threshold; and, controlling the electric scooter to move from the second position to the third position by a motor of the electric scooter.
A pulverulent preparation consisting of, based on the total weight of the preparation, (a) 62 to 76% by weight esters of sterols and/or stanols (b) 12 to 15% by weight milk powder and/or proteins and (c) 10 to 20% by weight carbohydrates selected from the group which is composed of glucose, sucrose, fructose, trehalose, maltose, maltodextrin, cyclodextrin, invert sugar, palatinose and lactose, (d) optionally further auxiliaries, with the proviso that the amounts of the substances (a) to (d) add up to 100% by weight, and that no emulsifiers are present other than those of group (b). (a) 62 to 76% by weight esters of sterols and/or stanols (b) 12 to 15% by weight milk powder and/or proteins and (c) 10 to 20% by weight carbohydrates selected from the group which is composed of glucose, sucrose, fructose, trehalose, maltose, maltodextrin, cyclodextrin, invert sugar, palatinose and lactose, (d) optionally further auxiliaries,
Light grid (10, 30, 40, 50) comprising a plurality of first light emitters arranged in a first plane with a first emitter raster spacing for emitting first monitoring light beams into the first plane and a plurality of second light emitters arranged in a second plane with a second emitter raster spacing for emitting second monitoring light beams into the second plane, a plurality of first light receivers associated with the first light emitters and arranged at a first receiver raster spacing and a plurality of second light emitters associated with the second light receivers arranged at a second receiver raster spacing, the first plane and the second plane being parallel to one another and having a distance, and the first light emitters and the second light emitters being arranged offset with respect to one another perpendicularly to a surface normal of the first plane and of the second plane and perpendicularly to a propagation direction of the first monitoring light beams and of the second monitoring light beams characterized in that at least one first emitter-side optical deflection element is assigned to the first light emitters and/or at least one second emitter-side optical deflection element is assigned to the second light emitters, the emitter-side optical deflection elements (17a, 17b) being designed for deflecting the first and/or the second monitoring light beams (18a, 18b) into a common monitoring plane, and a monitoring raster spacing of the monitoring light beams (18a, 18b) being smaller than the first and/or the second emitter raster spacing (15a, 15b).
A data storage in motion system comprising: a recirculating loop comprising an optical cavity (152, 162) configured to maintain an optical signal carrying data in motion, and the recirculating loop including a signal coupler (160, 161), a first signal returner (152, 162), and a signal conditioner (102, 153, 48) configured to condition the signal by amplifying the signal; the signal coupler (160, 161) configured to couple at least a portion of the signal into the optical cavity (152, 162) by transmitting the signal to the first signal returner (152, 162); the first signal returner (152, 162) positioned and configured to return the signal to the signal coupler (160, 161); the signal coupler (160, 161) configured to return the signal received from the first signal returner (152, 162) to the first signal returner (152, 162); and a signal regenerator (102, 153, 48) configured to regenerate, at a first timing, only a first portion of the signal, the first portion of the signal being less than an entirety of the signal, and to regenerate, at a second timing after the first timing, only a second portion of the signal, the second portion of the signal being less than an entirety of the signal. a recirculating loop comprising an optical cavity (152, 162) configured to maintain an optical signal carrying data in motion, and the recirculating loop including a signal coupler (160, 161), a first signal returner (152, 162), and a signal conditioner (102, 153, 48) configured to condition the signal by amplifying the signal; the signal coupler (160, 161) configured to couple at least a portion of the signal into the optical cavity (152, 162) by transmitting the signal to the first signal returner (152, 162); the first signal returner (152, 162) positioned and configured to return the signal to the signal coupler (160, 161); the signal coupler (160, 161) configured to return the signal received from the first signal returner (152, 162) to the first signal returner (152, 162); and a signal regenerator (102, 153, 48) configured to regenerate, at a first timing, only a first portion of the signal, the first portion of the signal being less than an entirety of the signal, and to regenerate, at a second timing after the first timing, only a second portion of the signal, the second portion of the signal being less than an entirety of the signal.
A communication method, comprising: receiving, by a first network device, first indication information from a second network device, wherein the first indication information comprises information used to determine a third network device, the second network device is an original master network device of a terminal device in a first connected state, and the third network device is an original secondary network device of the terminal device in the first connected state; and determining, by the first network device, the third network device as a new secondary network device of the terminal device based on the first indication information. receiving, by a first network device, first indication information from a second network device, wherein the first indication information comprises information used to determine a third network device, the second network device is an original master network device of a terminal device in a first connected state, and the third network device is an original secondary network device of the terminal device in the first connected state; and determining, by the first network device, the third network device as a new secondary network device of the terminal device based on the first indication information.