mhurhangee/patent-ind-claim-en huggingface dataset:
A wafer holder and temperature conditioning arrangement to be mounted to a vacuum wafer treatment chamber, comprising • a base arrangement with an extended, essentially plane surface bordered by a protruding circular rim surface about a center of said essentially plane surface; • a metal circular wafer carrier plate mounted centered with respect to said center of said essentially plane surface, one surface of said metal circular wafer carrier plate, said extended, essentially plane surface and said protruding circular rim surface commonly defining a heater compartment and said extended essentially plane surface and said protruding peripheral circular rim surface being heat reflector surfaces, said metal circular wafer carrier plate being drivingly rotatable about a geometric axis (A) through said center of said extended, essentially plane surface with respect to said base arrangement; • a multitude of heater lamp tubes arranged in said heater compartment along said extended, essentially plane surface and along said one surface of said metal circular wafer carrier plate and directly exposed to said one surface of said metal circular wafer carrier plate and mounted to said base arrangement; • a wafer retaining arrangement operationally coupled to said metal circular wafer carrier plate, wherein said metal circular carrier plate itself forms one wall of the heater compartment. • a base arrangement with an extended, essentially plane surface bordered by a protruding circular rim surface about a center of said essentially plane surface; • a metal circular wafer carrier plate mounted centered with respect to said center of said essentially plane surface, one surface of said metal circular wafer carrier plate, said extended, essentially plane surface and said protruding circular rim surface commonly defining a heater compartment and said extended essentially plane surface and said protruding peripheral circular rim surface being heat reflector surfaces, said metal circular wafer carrier plate being drivingly rotatable about a geometric axis (A) through said center of said extended, essentially plane surface with respect to said base arrangement; • a multitude of heater lamp tubes arranged in said heater compartment along said extended, essentially plane surface and along said one surface of said metal circular wafer carrier plate and directly exposed to said one surface of said metal circular wafer carrier plate and mounted to said base arrangement; • a wafer retaining arrangement operationally coupled to said metal circular wafer carrier plate,
A dosing device for dispensing metered doses of liquid from a container , the device comprising a front closure cap component securing onto a neck opening of the container and defining a front discharge opening , a control chamber positioned behind the front discharge opening to project back inside the container, such that an outlet passage is defined leading from the container interior forward past or around the control chamber to the front discharge opening , the control chamber having one or more rear control openings to admit a restricted flow of liquid from the container interior into the control chamber , and an obturator movable in the control chamber and adapted to advance forward, during dispensing, under the influence of liquid flowing into the control chamber behind it through the control opening(s) , to a blocking position where it blocks the outlet passage to terminate a dose by engagement with a rearwardly-extending tubular formation of the front cap component which defines part of the outlet passage in front of the obturator and has a rear annular periphery providing a rearwardly-directed seat , which surrounds the outlet passage and is engageable by a blocking portion at the front of the obturator in the blocking position, characterised in that an annular elastomeric element is provided around said rear annular periphery of the tubular formation to form a resiliently deformable seal around an annular engagement region thereof.
Round bearing having a circumferential surface forming a bearing surface, which circumferential surface is preferably finely machined and in which an oil-retaining structure is provided for forming an oil-retaining volume, wherein at least one groove section opens into one of the circumferential edges of the circumferential surface, wherein the bearing surface is formed by a bearing bush having a varying axial length (L, I) in trapezoidal form, characterized by at least one circumferential spiral groove , the end sections of which open in each case into a leading edge and into a trailing edge of the circumferential edges, wherein the at least one groove section is part of the spiral groove or spaced therefrom, wherein orifice regions of the groove sections and/or of the spiral grooves are widened to form oil-trapping points .
Device which can be used in industrial processes, intended to be interposed between a lower layer and an upper layer of particles arranged inside a cylindrical shell, so as to limit or prevent the migration of particles between the layers, said device comprising: i) a sealing disk made of fabric or of mesh, having: - a diameter substantially equal to the internal diameter of the cylindrical shell, and - meshes of equivalent diameter smaller than the equivalent diameter of the particles, and ii) a ring of fabric having: - meshes of equivalent diameter smaller than the equivalent diameter of the particles, - a length equal to the internal perimeter of the base of the cylindrical shell, - an upper part having an upper end intended to be attached along its entire length to the internal wall of the cylindrical shell, and - a lower part intended to be laid on the lower layer of particles or on the sealing disk, with the sealing disk and the lower part of the ring of fabric being superimposed and the overlap between the disk and the ring of fabric being less than 150 millimeters. i) a sealing disk made of fabric or of mesh, having: - a diameter substantially equal to the internal diameter of the cylindrical shell, and - meshes of equivalent diameter smaller than the equivalent diameter of the particles, and - a diameter substantially equal to the internal diameter of the cylindrical shell, and - meshes of equivalent diameter smaller than the equivalent diameter of the particles, and ii) a ring of fabric having: - meshes of equivalent diameter smaller than the equivalent diameter of the particles, - a length equal to the internal perimeter of the base of the cylindrical shell, - an upper part having an upper end intended to be attached along its entire length to the internal wall of the cylindrical shell, and - a lower part intended to be laid on the lower layer of particles or on the sealing disk, with the sealing disk and the lower part of the ring of fabric being superimposed and the overlap between the disk and the ring of fabric being less than 150 millimeters. - meshes of equivalent diameter smaller than the equivalent diameter of the particles, - a length equal to the internal perimeter of the base of the cylindrical shell, - an upper part having an upper end intended to be attached along its entire length to the internal wall of the cylindrical shell, and - a lower part intended to be laid on the lower layer of particles or on the sealing disk, with the sealing disk and the lower part of the ring of fabric being superimposed and the overlap between the disk and the ring of fabric being less than 150 millimeters.
A bispecific single chain antibody construct comprising a first human binding domain which binds to an epitope cluster of human CDH3 on the surface of a target cell, wherein the first binding domain also binds to macaque CDH3, preferably to Macaca fascicularis CDH3, and comprising a second binding domain which binds to human CD3 on the surface of a T cell, wherein the epitope cluster of human CDH3 is comprised within amino acid positions 291-363 (SEQ ID NO: 36) of human CDH3 as depicted in SEQ ID NO: 1, wherein the binding domains have the following format: pairs of VH regions and VL regions in the format of an scFv, and wherein redirected lysis of target cells via the recruitment of T cells by the antibody construct involves cytolytic synapse formation and delivery of perforin and granzymes.
Supporting device for stabilizing underground cavities , especially tunnels, having at least a first supporting beam and at least one compression body , the supporting device comprising at least a second supporting beam, said first and second supporting beams are formed by arched beam elements being able to move under load towards each other, the supporting beams are steel I-profile beams or steel pipes, and said compression body is arranged such that the supporting beams are able to move under load, wherein the compression body is made of a material with a high yield strength of at least 235 N/mm^2 and great permanent deformation ability with a yield-to tension ratio of at least 1.05, the compression body is arranged between said arched beam elements , characterized in that said compression body contains a pipe , wherein said pipe has a circular cross-section and the wall thickness (v) of the pipe is selected in the range of 0.05 to 0.15 times the diameter (D) of the circular cross-section pipe , or said pipe has a right-angled rectangular cross-section and the wall thickness (v) of the pipe is selected in the range of 0.05 to 0.15 times the beam-direction side length of the pipe with a right-angled rectangular cross-section.
Non-therapeutic use of a composition for controlling an aquatic pest, wherein the composition comprises an aquatic pesticide and a surface-reacted calcium carbonate, and wherein the surface-reacted calcium carbonate is a reaction product of natural ground calcium carbonate or precipitated calcium carbonate with carbon dioxide and one or more H 3 O + ion donors, wherein the carbon dioxide is formed in situ by the H 3 O + ion donor treatment and/or is supplied from an external source. wherein the composition comprises an aquatic pesticide and a surface-reacted calcium carbonate, and wherein the surface-reacted calcium carbonate is a reaction product of natural ground calcium carbonate or precipitated calcium carbonate with carbon dioxide and one or more H 3 O + ion donors, wherein the carbon dioxide is formed in situ by the H 3 O + ion donor treatment and/or is supplied from an external source.
A launched swing amusement ride comprising: a carrier for carrying a rider, wherein the carrier is suspended to swing from a support by at least one elongate suspension member and is arranged to swing in more than one direction along an arcuate path (AP), the arcuate path (AP) having a lowest point; a launch mechanism located outside of the arcuate path (AP); characterized in that a tether is arranged to releasably couple the carrier to the launch mechanism to accelerate the carrier in a first forward direction through a portion of the arcuate path (AP) between an engagement position and a release position , and to then decouple the carrier from the launch mechanism at the release position to propel the carrier in the first forward direction and on the arcuate path (AP) on an upward trajectory relative to the release position . a carrier for carrying a rider, wherein the carrier is suspended to swing from a support by at least one elongate suspension member and is arranged to swing in more than one direction along an arcuate path (AP), the arcuate path (AP) having a lowest point; a launch mechanism located outside of the arcuate path (AP);
Solar panel (1-107) comprising solar power collecting means (2-702), such as solar collectors or photovoltaic cells, the panel also comprising an upper face, in which the panel comprises a unitary buoyant structure on which the solar power collecting means (2-702) are mounted, the latter being incorporated into a solar module (3-703) arranged, in particular flat, on the buoyant structure, the panel (1-107) having, in a direction perpendicular to the upper face, a substantially constant thickness at least in a peripheral region of the panel (1-107), characterized in that the buoyant structure is adapted to position the upper face in a flush manner with the level of the surrounding water, in calm water.
A vehicle-to-everything abnormal behavior detection method, wherein the method comprises: receiving , by a vehicle-to-everything server, a report message sent by a vehicle-to-everything receiving terminal, wherein the report message comprises a first vehicle-to-everything message sent by a vehicle-to-everything sending terminal; determining , by the vehicle-to-everything server according to a second abnormal behavior detection policy and the report message, whether the vehicle-to-everything receiving terminal has an abnormal behavior; and determining , by the vehicle-to-everything server according to a third abnormal behavior detection policy and the first vehicle-to-everything message, whether the vehicle-to-everything sending terminal has an abnormal behavior. receiving , by a vehicle-to-everything server, a report message sent by a vehicle-to-everything receiving terminal, wherein the report message comprises a first vehicle-to-everything message sent by a vehicle-to-everything sending terminal; determining , by the vehicle-to-everything server according to a second abnormal behavior detection policy and the report message, whether the vehicle-to-everything receiving terminal has an abnormal behavior; and determining , by the vehicle-to-everything server according to a third abnormal behavior detection policy and the first vehicle-to-everything message, whether the vehicle-to-everything sending terminal has an abnormal behavior.
A method for wireless communication by a wireless device , comprising: identifying a plurality of downlink carriers for a transmission time interval, TTI; identifying a period of inactivity for one or more downlink carriers of the plurality of downlink carriers during the TTI; determining that a minimum bandwidth criteria for the wireless device is not satisfied; and transmitting narrowband reference signals, NB-RSs, over the one or more downlink carriers during the period of inactivity according to a channel reservation narrowband reference signal, NB-RS, pattern , the channel reservation NB-RS pattern comprising a first set of time-frequency resources associated with a baseline NB-RS pattern and a second set of supplemental time-frequency resources associated with the period of inactivity, wherein transmitting the second set of supplemental time-frequency resources during the period of inactivity allows the wireless device to satisfy the minimum bandwidth criteria for the wireless device during the period of inactivity. identifying a plurality of downlink carriers for a transmission time interval, TTI; identifying a period of inactivity for one or more downlink carriers of the plurality of downlink carriers during the TTI; determining that a minimum bandwidth criteria for the wireless device is not satisfied; and transmitting narrowband reference signals, NB-RSs, over the one or more downlink carriers during the period of inactivity according to a channel reservation narrowband reference signal, NB-RS, pattern , the channel reservation NB-RS pattern comprising a first set of time-frequency resources associated with a baseline NB-RS pattern and a second set of supplemental time-frequency resources associated with the period of inactivity, wherein transmitting the second set of supplemental time-frequency resources during the period of inactivity allows the wireless device to satisfy the minimum bandwidth criteria for the wireless device during the period of inactivity.
A method of distinguishing two tracked instruments, comprising: associating a first tracking device with a first instrument having a first operative portion ; associating a second tracking device with a second instrument having a second operative portion, wherein the first operative portion is a first tapping portion and the second operative portion is a second tapping portion; operating a processor system configured for: determining a first tracking device characteristic of the first tracking device, determining a second tracking device characteristic of the second tracking device, and customizing a user interface to visually distinguish a first icon of the first operative portion representing the first instrument and a second icon of the second operative portion representing the second instrument; and operating a display device to display the customized user interface to visually distinguish the first icon and the second icon displayed on the display device. associating a first tracking device with a first instrument having a first operative portion ; associating a second tracking device with a second instrument having a second operative portion, wherein the first operative portion is a first tapping portion and the second operative portion is a second tapping portion; operating a processor system configured for: determining a first tracking device characteristic of the first tracking device, determining a second tracking device characteristic of the second tracking device, and customizing a user interface to visually distinguish a first icon of the first operative portion representing the first instrument and a second icon of the second operative portion representing the second instrument; and determining a first tracking device characteristic of the first tracking device, determining a second tracking device characteristic of the second tracking device, and customizing a user interface to visually distinguish a first icon of the first operative portion representing the first instrument and a second icon of the second operative portion representing the second instrument; and operating a display device to display the customized user interface to visually distinguish the first icon and the second icon displayed on the display device.
Device relating to a method for making a composite foundation shaft of low to medium depth for the production and storage of renewable energy by a geothermal grid, the production and storage of renewable energy by a geosolar network, all benefiting from a control of the monitoring of characteristics and consumption of water and energy, said device is characterized in that it incorporates in a single element a foundation shaft body comprising a slab and a post , a tank , a vertical drain , this assembly is surmounted by a manhole whose cover comprises a geo-solar carpet and is intended to operate as a closed network dedicated to a construction or as network open to the outside for sharing of resources, where the assembly fulfils various functions such as "rainwater harvesting and management" through a vertical water inlet , or by water extraction , "infiltration of rain water run-off flows into groundwater" by discharge into a vertical drain
Control device of a horological movement, including on the one hand, a first part comprising a sliding guide tube intended to be stationary relative to said horological movement and an activation module , and on the other hand, a second movable part slidably guided by the guide tube in a so-called "axial direction", relative to said first part , between an active position wherein it is able to be made integral, by means of an adjustment rod , with a component of the horological movement, and an inactive position wherein said adjustment rod is intended to release the component of the horological movement, said second part comprising a sliding block fixed to the adjustment rod and cooperating with the activation module so that they exert mechanical stresses on each other when the second part moves between the active and inactive positions, and so that these mechanical stresses are released when the second part reaches one of the active or inactive positions, the control device being characterised in that the activation module includes a sheath fixed to the guide tube , cooperating with the sliding block so as to translatably guide it without any degree of rotational freedom, the activation module further comprising a sleeve kinematically connected with the sheath in a helical connection and being configured, under the action of a resilient member , to apply mechanical stresses to the sliding block when the second part moves between the active and inactive positions.
Connecting element for connecting an essentially vertically arranged upright for a non-bearing wall structure with an essentially horizontal U-shaped profile, the connecting element comprising at least one fastening section for fastening the connecting element to the horizontal U-shaped profile, and at least one sliding guide for guiding the upright, wherein the at least one sliding guide is designed and provided to at least partially surround the cross-section of the upright on the outside to allow a sliding compensation movement in the vertical direction and wherein the at least one sliding guide has at least one elongated hole , whereby the sliding guide is set up for sliding fastening on the upright , characterized in that the fastening section comprises at least two fastening ears arranged in one plane.
A vehicle engine having an axis of symmetry about which components that comprise the vehicle engine rotate, comprising: an inlet particle separator system , the inlet particle separator system comprising: a hub section having a hub outer surface that diverges, relative to the axis of symmetry , to a hub apex , the hub apex being located at a point at which the hub section is at a maximum diameter relative to the axis of symmetry ; a shroud section having a shroud inner surface that surrounds, and is spaced apart from, at least a portion of the hub section to define a main flow passageway between the hub outer surface and the shroud inner surface, the main flow passageway having an air inlet and a cross sectional flow area; and a splitter disposed downstream of the air inlet and extending into the main flow passageway to divide the main flow passageway into a scavenge flow path and an engine flow path, wherein: the hub section and the shroud section are configured such that the cross sectional flow area of the main flow passageway decreases downstream of the air inlet to define a throat section , and the throat section is disposed upstream of the hub apex. a hub section having a hub outer surface that diverges, relative to the axis of symmetry , to a hub apex , the hub apex being located at a point at which the hub section is at a maximum diameter relative to the axis of symmetry ; a shroud section having a shroud inner surface that surrounds, and is spaced apart from, at least a portion of the hub section to define a main flow passageway between the hub outer surface and the shroud inner surface, the main flow passageway having an air inlet and a cross sectional flow area; and a splitter disposed downstream of the air inlet and extending into the main flow passageway to divide the main flow passageway into a scavenge flow path and an engine flow path, wherein: the hub section and the shroud section are configured such that the cross sectional flow area of the main flow passageway decreases downstream of the air inlet to define a throat section , and the throat section is disposed upstream of the hub apex. the hub section and the shroud section are configured such that the cross sectional flow area of the main flow passageway decreases downstream of the air inlet to define a throat section , and the throat section is disposed upstream of the hub apex.
A method of controlling operation of a metal-air battery , the method comprising: controlling a current drawn from the battery and a temperature of the battery by repeatedly setting the current drawn from the battery and repeatedly setting the temperature of the battery until a desired energetic utilization ratio is achieved, wherein the energetic utilization ratio comprises a corrosion rate and an actual cell voltage.