mhurhangee/ep-ind-claims huggingface dataset:
A multi-point detection system comprising: a light source (22; 122; 222) configured to emit an array of collimated light beams; one or more light sensors (28; 128; 228) defining an array of lines of view, each of the lines of view being a straight path from a lens (30a; 130a) along which the lens (30a; 130a), to the exclusion of light from other directions, receives light from the region in which the system is used, each of the lines of view intersecting different ones of the collimated light beams at respective detection nodes, the one or more light sensors operable to emit sensor signals responsive to received process light from interaction of the collimated light beams with an analyte at the detection nodes; and a controller connected to receive the sensor signals, the controller configured to determine from the process light whether the analyte contains a target species; characterised in that the light source (22; 122; 222) comprises a laser configured to emit a laser beam to a lens element at a wavelength configured to be altered in a controlled manner across a range of wavelengths, the lens element including a plurality of lenses that divide and collimate the laser beam into the array of collimated light beams; and in that the controller is configured to determine a chemical identity of the target species from a spectrum of scattered light over the range of wavelengths. a light source (22; 122; 222) configured to emit an array of collimated light beams; one or more light sensors (28; 128; 228) defining an array of lines of view, each of the lines of view being a straight path from a lens (30a; 130a) along which the lens (30a; 130a), to the exclusion of light from other directions, receives light from the region in which the system is used, each of the lines of view intersecting different ones of the collimated light beams at respective detection nodes, the one or more light sensors operable to emit sensor signals responsive to received process light from interaction of the collimated light beams with an analyte at the detection nodes; and a controller connected to receive the sensor signals, the controller configured to determine from the process light whether the analyte contains a target species; characterised in that the light source (22; 122; 222) comprises a laser configured to emit a laser beam to a lens element at a wavelength configured to be altered in a controlled manner across a range of wavelengths, the lens element including a plurality of lenses that divide and collimate the laser beam into the array of collimated light beams; and in that the controller is configured to determine a chemical identity of the target species from a spectrum of scattered light over the range of wavelengths.
A method comprising: receiving, by a wireless device, a sidelink transmission comprising a transport block; determining a feedback resource from: first feedback resources in response to the sidelink transmission indicating one of: unicast; or groupcast with a first feedback operation, wherein the first feedback resources are used for both unicast and groupcast with the first feedback operation; and second feedback resources in response to the sidelink transmission indicating groupcast with a second feedback operation; and transmitting, via the feedback resource, a feedback for the transport block. receiving, by a wireless device, a sidelink transmission comprising a transport block; determining a feedback resource from: first feedback resources in response to the sidelink transmission indicating one of: unicast; or groupcast with a first feedback operation, wherein the first feedback resources are used for both unicast and groupcast with the first feedback operation; and second feedback resources in response to the sidelink transmission indicating groupcast with a second feedback operation; and first feedback resources in response to the sidelink transmission indicating one of: unicast; or groupcast with a first feedback operation, wherein the first feedback resources are used for both unicast and groupcast with the first feedback operation; and unicast; or groupcast with a first feedback operation, wherein the first feedback resources are used for both unicast and groupcast with the first feedback operation; and second feedback resources in response to the sidelink transmission indicating groupcast with a second feedback operation; and transmitting, via the feedback resource, a feedback for the transport block.
A halogen-free, flame-retardant composition comprising: a styrenic block copolymer; a low-melting, phosphorus-based flame retardant having a melting temperature no higher than 170 °C; and a blend of solid intumescent flame retardants comprising a melamine derivative and piperazine pyrophosphate; in which the styrenic block copolymer comprises at least 40 percent by weight of the total polymer content of the composition; wherein the composition passes the UL-62 VW-1 flame test. a styrenic block copolymer; a low-melting, phosphorus-based flame retardant having a melting temperature no higher than 170 °C; and a blend of solid intumescent flame retardants comprising a melamine derivative and piperazine pyrophosphate; in which the styrenic block copolymer comprises at least 40 percent by weight of the total polymer content of the composition; wherein the composition passes the UL-62 VW-1 flame test.
Tensioning lever for articulated fixing in a rail vehicle, with a first claw and at least one further, second claw, wherein at least one of the claws (2, 3) is arranged such that it can be moved on and locked to the tensioning lever, in order to brace the tensioning lever against a vehicle body of the rail vehicle, characterised in that the tensioning lever is embodied as a telescopic pipe with at least one first partial tube and a rod which is guided such that it can be displaced in the first partial tube, wherein the tensioning lever has a clamping screw for locking the rod to the first partial tube.
An energy saving signal transmission method, comprises: configuring, by a base station, at least one of a first transmission opportunity to transmit a first energy saving signal or a second transmission opportunity to transmit a second energy saving signal for a terminal through a higher-layer signaling or a physical-layer; using, by the base station, at least one of the first transmission opportunity to transmit the first energy saving signal to the terminal, or the second transmission opportunity to transmit the second energy saving signal to the terminal; characterized in that the configuring, by the base station, at least one of a first transmission opportunity or a second transmission opportunity for a terminal through a higher-layer signaling or a physical-layer, comprises: configuring, by the base station, at least one of the first transmission opportunity with a first period or the second transmission opportunity with a second period for the terminal through a higher-layer signaling or a physical-layer; wherein the first period is same as the second period, and an offset corresponding to the first period is different from an offset corresponding to the second period; or the first period is same as the second period, and an offset corresponding to the first period is same as an offset corresponding to the second period. configuring, by a base station, at least one of a first transmission opportunity to transmit a first energy saving signal or a second transmission opportunity to transmit a second energy saving signal for a terminal through a higher-layer signaling or a physical-layer; using, by the base station, at least one of the first transmission opportunity to transmit the first energy saving signal to the terminal, or the second transmission opportunity to transmit the second energy saving signal to the terminal; characterized in that the configuring, by the base station, at least one of a first transmission opportunity or a second transmission opportunity for a terminal through a higher-layer signaling or a physical-layer, comprises: configuring, by the base station, at least one of the first transmission opportunity with a first period or the second transmission opportunity with a second period for the terminal through a higher-layer signaling or a physical-layer; wherein the first period is same as the second period, and an offset corresponding to the first period is different from an offset corresponding to the second period; or the first period is same as the second period, and an offset corresponding to the first period is same as an offset corresponding to the second period. configuring, by the base station, at least one of the first transmission opportunity with a first period or the second transmission opportunity with a second period for the terminal through a higher-layer signaling or a physical-layer; wherein the first period is same as the second period, and an offset corresponding to the first period is different from an offset corresponding to the second period; or the first period is same as the second period, and an offset corresponding to the first period is same as an offset corresponding to the second period.
Method for the production of a dental replacement structure to be produced individually in 3D printing, comprising the steps i. Multi-axially rotatable mounting of a substructure in a 3D printer, in particular on a multi-axially rotatable carrier plate, wherein the substructure is a dental framework structure; ii. Determining the shape and/or the position of the substructure in the 3D printer by means of a scanner integrated in the 3D printer; iii. Comparison of the determined shape and/or position of the substructure with 3D data of the dental replacement structure to be individually produced; iv. Optional: Application of a bonding layer on the substructure and/or conditioning of the substructure; v. Application of material, in particular application of a composite material, to the substructure in a 3D printing process in such a way that the dental replacement structure to be manufactured in an individualised manner is produced, the 3D printing process being monitored by the scanner integrated in the 3D printer. i. Multi-axially rotatable mounting of a substructure in a 3D printer, in particular on a multi-axially rotatable carrier plate, wherein the substructure is a dental framework structure; ii. Determining the shape and/or the position of the substructure in the 3D printer by means of a scanner integrated in the 3D printer; iii. Comparison of the determined shape and/or position of the substructure with 3D data of the dental replacement structure to be individually produced; iv. Optional: Application of a bonding layer on the substructure and/or conditioning of the substructure; v. Application of material, in particular application of a composite material, to the substructure in a 3D printing process in such a way that the dental replacement structure to be manufactured in an individualised manner is produced, the 3D printing process being monitored by the scanner integrated in the 3D printer.
Method for fitting a lens in a spectacle frame, in which method at least one structural element is secured on a frameless spectacle lens in order to connect the spectacle lens to a frame, characterized in that, in order to form the at least one structural element, a material present in a liquid phase is applied to the spectacle lens, which material bonds cohesively to the lens and is hardened by chemical reaction or by irradiation with electromagnetic waves, wherein the material forms all in one the at least one structural element and the adhesive for securing same to the lens, and wherein the at least one structural element or each part of a multi-part structural element is applied in a single application step, in which a bead of defined shape or a strand of defined shape of the liquid material is applied through a nozzle and hardened and the shape of the solidified structural element is defined by the cross-sectional shape or orifice shape of the nozzle, or in a plurality of successive application steps, wherein in each application step a bead or a strand of the liquid material is applied and after each application step the respective applied bead or strand is hardened, wherein structural elements are placed in the regions of the lens edge, and the positioning and the local cross-sectional geometry is calculated under computer control a. as a function of the shape of the lens cutout in the frame and/or b. the edge thickness and/or c. the edge curves of the lens to be inserted, the frame curve and the material of the lens and frame. a. as a function of the shape of the lens cutout in the frame and/or b. the edge thickness and/or c. the edge curves of the lens to be inserted, the frame curve and the material of the lens and frame.
Metering device for the metered introduction of a pourable cleaning agent into a treatment chamber of a programme-controlled cleaning device, in particular a dishwasher, comprising a housing, a storage container which accommodates the cleaning agent, and a supporting unit which is arranged so as to be movable within the housing, and in particular rotatable about an axis of rotation, and which replaceably receives the storage container and by means of which the storage container can be transferred from a home position into a metering position and vice versa, the storage container having a storage chamber and a metering channel which opens into a metering opening, the device also comprising a discharge channel which opens into the treatment chamber via a discharge opening, and which is in fluidic connection with the metering channel when the storage container is in the metering position, the discharge channel having an in-feed opening on the metering channel side, the device also comprising a housing-side closure means which, when the storage container is in the home position, interacts with and closes the metering opening of the metering channel, characterised by a drying fan arranged on the housing on the outside of said housing, the housing having an inlet opening which interacts with the drying fan, and an outlet opening for drying air conveyed by the drying fan, the inlet opening being arranged in the vertical direction of the housing below the housing-side closure means. the device also comprising a housing-side closure means which, when the storage container is in the home position, interacts with and closes the metering opening of the metering channel, characterised by a drying fan arranged on the housing on the outside of said housing, the housing having an inlet opening which interacts with the drying fan, and an outlet opening for drying air conveyed by the drying fan, the inlet opening being arranged in the vertical direction of the housing below the housing-side closure means.
A method for geophysical exploration, comprising: performing at least one intervening towed seismic survey after a prior towed seismic survey having associated first streamer positions and before a future towed seismic survey having associated second streamer positions that do not coincide with the first streamer positions; and using measurements acquired in said at least one intervening towed seismic survey to link the prior towed seismic survey to the future towed seismic survey for time lapse analysis involving the prior and future towed seismic surveys; wherein: the first streamer positions are associated with minimum resolution zones, second streamer positions are not substantially located within the zones, and the act of performing said at least one intervening towed seismic survey comprises conducting said at least one intervening towed seismic survey such that said at least one intervening towed seismic survey has streamer positions that are located within the zones. performing at least one intervening towed seismic survey after a prior towed seismic survey having associated first streamer positions and before a future towed seismic survey having associated second streamer positions that do not coincide with the first streamer positions; and using measurements acquired in said at least one intervening towed seismic survey to link the prior towed seismic survey to the future towed seismic survey for time lapse analysis involving the prior and future towed seismic surveys; wherein: the first streamer positions are associated with minimum resolution zones, second streamer positions are not substantially located within the zones, and the act of performing said at least one intervening towed seismic survey comprises conducting said at least one intervening towed seismic survey such that said at least one intervening towed seismic survey has streamer positions that are located within the zones. the first streamer positions are associated with minimum resolution zones, second streamer positions are not substantially located within the zones, and the act of performing said at least one intervening towed seismic survey comprises conducting said at least one intervening towed seismic survey such that said at least one intervening towed seismic survey has streamer positions that are located within the zones.
A viscosity modifier for lubricating oil, comprising an ethylene/α-olefin copolymer which is a copolymer of ethylene and an α-olefin of 3 to 20 carbon atoms and has the following properties: the ethylene content is in the range of 40 to 77 % by weight, the weight-average molecular weight (Mw) in terms of polystyrene, as measured by GPC, is in the range of 80,000 to 400,000, Mw/Mn is not more than 2.4, the melting point (Tm), as measured by DSC, is not higher than 60°C, the ethylene content (E, % by weight) and the melting point (Tm, °C), as measured by DSC, satisfy the following relation: 3.31 × E − 186 ≥ Tm and the proportion (V, %) of αβ carbon atoms to all carbon atoms in the main chain, and if present, the long chain branches, and the ethylene content (E, % by weight) satisfy the following relation: V ≤ 10 − 0.1 × E the ethylene content is in the range of 40 to 77 % by weight, the weight-average molecular weight (Mw) in terms of polystyrene, as measured by GPC, is in the range of 80,000 to 400,000, Mw/Mn is not more than 2.4, the melting point (Tm), as measured by DSC, is not higher than 60°C, the ethylene content (E, % by weight) and the melting point (Tm, °C), as measured by DSC, satisfy the following relation: 3.31 × E − 186 ≥ Tm and the proportion (V, %) of αβ carbon atoms to all carbon atoms in the main chain, and if present, the long chain branches, and the ethylene content (E, % by weight) satisfy the following relation: V ≤ 10 − 0.1 × E
A cutting blade, in particular a scythe-like blade or spiral blade or circular blade, for an apparatus for slicing food products, in particular for a highspeed slicer, the cutting blade rotating about an axis of rotation during a cutting operation, having a radially outer peripheral edge which acts as a blade edge and which has a curved extent about the axis of rotation; and having a plurality of cutting teeth which are arranged distributed following one another along the peripheral edge, wherein each cutting tooth has a blade edge which comprises a cutting surface and a cutting edge radially outwardly bounding the cutting surface, characterized in that each cutting surface extends inclined with respect to a spanned plane perpendicular to the axis of rotation or with respect to a cutting plane and the inclination of the cutting surfaces varies along the peripheral edge.
Apparatus for introducing beating or pulsed movements into tube walls within a pressure vessel, comprising a first ram imparting the beating pulse to a tube wall, which ram presses through the pressure vessel wall, a pressurized first annular space, in which the first ram is guided, a second ram, a further tubular chamber, in which the second ram is guided, the first ram being acted upon by the second ram, wherein the second ram is provided with at least one first guide, acting upon the inner wall of the tubular chamber, in the region of the end thereof which makes contact with the first ram, and is provided with a second guide equipped with a sealing element in the region of the end thereof which protrudes from the tubular chamber, characterized in that the second ram is enclosed between the two guides (6a, 6b) by a compensator fixed in a gas-tight manner, and in that the second guide of the second ram is provided with seals (19, 24a) to form an annular space sealed off with respect to the surroundings, the seal (19, 24a), which surrounds the outwardly facing ram end, being formed as a static seal.
A downhole formation evaluation tool (102, 200), comprising: a sample chamber; and a valve system coupled to the sample chamber, wherein the valve system comprises: a valve disposed in a housing and comprising a spool moveable from an un-actuated position, wherein a recess portion on a circumference of the spool is not aligned with a flow path (438, 440) thereby preventing a fluid from flowing into the sample chamber, to an actuated position in response to actuation of the valve, wherein the recess portion on the circumference of the spool is aligned with the flow path (438, 440) to allow fluid passage to the sample chamber; and a valve shift detection system disposed in the housing and comprising a switch component and a resistor disposed in one or more insulating bodies (448, 450), wherein the valve shift detection system is electrically isolated from the valve in the un-actuated position and electrically coupled to the valve in the actuated position. a sample chamber; and a valve system coupled to the sample chamber, wherein the valve system comprises: a valve disposed in a housing and comprising a spool moveable from an un-actuated position, wherein a recess portion on a circumference of the spool is not aligned with a flow path (438, 440) thereby preventing a fluid from flowing into the sample chamber, to an actuated position in response to actuation of the valve, wherein the recess portion on the circumference of the spool is aligned with the flow path (438, 440) to allow fluid passage to the sample chamber; and a valve shift detection system disposed in the housing and comprising a switch component and a resistor disposed in one or more insulating bodies (448, 450), wherein the valve shift detection system is electrically isolated from the valve in the un-actuated position and electrically coupled to the valve in the actuated position. a valve disposed in a housing and comprising a spool moveable from an un-actuated position, wherein a recess portion on a circumference of the spool is not aligned with a flow path (438, 440) thereby preventing a fluid from flowing into the sample chamber, to an actuated position in response to actuation of the valve, wherein the recess portion on the circumference of the spool is aligned with the flow path (438, 440) to allow fluid passage to the sample chamber; and a valve shift detection system disposed in the housing and comprising a switch component and a resistor disposed in one or more insulating bodies (448, 450), wherein the valve shift detection system is electrically isolated from the valve in the un-actuated position and electrically coupled to the valve in the actuated position.
Potential compensation cable (10, 30) for use with machine or facility parts, particularly between fire shutters and ventilation ducts, comprising at least one first conductor component (11, 35a) being separably connected with at least one second conductor component (12, 35b) to form a conductor, characterized in that the separable connection between the at least one first conductor component (11, 35a) and the at least one second conductor component (12, 35b) comprises a combination of a magnetic connection (14; 31) and a connection which is releasable under heat influence.
A foaming composition comprising; a powdered carbohydrate-free soluble composition comprising protein particles having a plurality of internal voids containing entrapped pressurized gas and less than 1% by weight carbohydrate; and wherein the protein particles include hydrolyzed gelatin.