mhurhangee/ep-ind-claims huggingface dataset:
A detection system comprising: a central manifold comprising a detection chamber; a pipe network comprising at least one pipe fluidly coupled to the central manifold; a plurality of inlets formed over a length of the at least one pipe; an aspirating mechanism operable to draw a fluid flow at each of the plurality of inlets through the pipe network to the central manifold; and a plurality of independently operable flow control devices associated with the plurality of inlets, characterized in that at least one of the plurality of flow control devices comprises: a base; an actuator connected to the base; and a sealing element extending from the base and formed from a solid state flexible polymer coupled to electrodes, wherein the solid state flexible polymer is deformable in response to application of a voltage to the electrodes, wherein the at least one flow control device of the plurality of flow control devices is mounted relative to an inlet such that, when the at least one flow control device of the plurality of flow control devices is in an open configuration, a flow is provided to the pipe network via a clearance between an outer periphery of the sealing element and the inlet, and wherein the sealing element is configured to expand in response to application by the actuator of a voltage to the electrodes such that the outer periphery of the sealing element directly contacts the inlet to seal the inlet. a central manifold comprising a detection chamber; a pipe network comprising at least one pipe fluidly coupled to the central manifold; a plurality of inlets formed over a length of the at least one pipe; an aspirating mechanism operable to draw a fluid flow at each of the plurality of inlets through the pipe network to the central manifold; and a plurality of independently operable flow control devices associated with the plurality of inlets, characterized in that at least one of the plurality of flow control devices comprises: a base; an actuator connected to the base; and a sealing element extending from the base and formed from a solid state flexible polymer coupled to electrodes, wherein the solid state flexible polymer is deformable in response to application of a voltage to the electrodes, a base; an actuator connected to the base; and a sealing element extending from the base and formed from a solid state flexible polymer coupled to electrodes, wherein the solid state flexible polymer is deformable in response to application of a voltage to the electrodes, wherein the at least one flow control device of the plurality of flow control devices is mounted relative to an inlet such that, when the at least one flow control device of the plurality of flow control devices is in an open configuration, a flow is provided to the pipe network via a clearance between an outer periphery of the sealing element and the inlet, and wherein the sealing element is configured to expand in response to application by the actuator of a voltage to the electrodes such that the outer periphery of the sealing element directly contacts the inlet to seal the inlet.
A device manufacturing apparatus, comprising: a plurality of sealed-type unit process apparatuses configured to process a single process in a device manufacturing process; a sealed conveyance container configured to store one sheet of wafer as a work object; a wafer entry/exit front chamber being disposed for each unit process apparatus, configured to pass the wafer between the unit process apparatus and the sealed conveyance container; and conveyance means configured to convey the sealed conveyance container between the wafer entry/exit front chambers, wherein the plurality of unit process apparatuses is portable, the plurality of unit process apparatuses is arrangeable as a flow shop system in which the arrangement of the unit process apparatuses corresponds to an order of processes for the device, the unit process apparatuses are arrangeable as a class shop system, in which a plurality of unit process apparatuses are prepared for one process type, for classified arrangement at every major division of orders of processes, and the unit process apparatuses are arrangeable as a multicell shop system, the multicell shop system including approximately one unit process apparatus arranged in one cell for one process type, the multicell shop system including a plurality of the cells. a plurality of sealed-type unit process apparatuses configured to process a single process in a device manufacturing process; a sealed conveyance container configured to store one sheet of wafer as a work object; a wafer entry/exit front chamber being disposed for each unit process apparatus, configured to pass the wafer between the unit process apparatus and the sealed conveyance container; and conveyance means configured to convey the sealed conveyance container between the wafer entry/exit front chambers,
Active ingredient combinations comprising: a) ε-polylysine (epsilon-polylysine) having a degree of polymerization of 2 to 200, preferably 10 to 100, particularly preferably of 23 to 35 b) one or more aromatic esters, aldehydes and/or alcohols, wherein the aromatic aldehyde(s) are selected from the group of hexyl cinnamal and amyl cinnamal, the aromatic ester(s) are selected from the group of benzyl acetate and hexyl salicylate, and/or the aromatic alcohol(s) are selected from the group of phenylethyl alcohol, benzyl alcohol and anisyl alcohol, in which ratios by weight of a) ε-polylysine on the one hand and b) the totality of one or more aromatic aldehydes and/or esters and/or alcohols on the other hand are selected from 10:1 to 1:100, advantageously from 5:1 to 1:20, particularly advantageously from 1:1 to 1:10. a) ε-polylysine (epsilon-polylysine) having a degree of polymerization of 2 to 200, preferably 10 to 100, particularly preferably of 23 to 35 b) one or more aromatic esters, aldehydes and/or alcohols, wherein the aromatic aldehyde(s) are selected from the group of hexyl cinnamal and amyl cinnamal, the aromatic ester(s) are selected from the group of benzyl acetate and hexyl salicylate, and/or the aromatic alcohol(s) are selected from the group of phenylethyl alcohol, benzyl alcohol and anisyl alcohol, a) ε-polylysine on the one hand and b) the totality of one or more aromatic aldehydes and/or esters and/or alcohols on the other hand are selected from 10:1 to 1:100, advantageously from 5:1 to 1:20, particularly advantageously from 1:1 to 1:10.
An underwater measurement system (20, 30, 40) for monitoring an underwater region, said system (20, 30, 40) including a sensor assembly operable to sense at least one physical variable in the region for generating at least one corresponding sensor signal, and a data processing arrangement (170, 510, 520) for processing the at least one sensor signal to generate precessed data for presentation and/or logging, characterized in that said sensor assembly includes one or more voltage sensors configured to sense electric fields present in the underwater region and provide information in said at least one signal indicative of said electric fields; said sensor assembly includes one or more hydrophones operable to receive sonic energy generated in said underwater region and to include corresponding information in said at least one sensor signal for communicating to said data processing arrangement (170, 510, 520); said one or more hydrophones are configured as an array of hydrophones whose sonic sensing characteristic in operation has one or more preferred directions of sensitivity for enabling a direction of a source of sonic energy to be determined; and said one or more hydrophones constitute in operation a phased array of hydrophones whose polar sensitivity characteristics are electronically steerable from said data processing arrangement (170, 520, 520).
A computer-implemented method for co-expression analysis of multiple markers in a tissue sample comprising: computing a heat map of marker expression for each of a plurality of single marker channel images, wherein heat maps of marker expressions are computed by applying a low pass filter to each of the plurality of single marker channel images, and wherein each of the plurality of single marker channel images comprise a single marker; identifying one or more candidate regions of interest, ROIs, in each heat map of marker expression by applying a local maximum filter to each heat map of marker expression and selecting a predetermined number of highest ranked local maxima, and delineating a field of view, FOV, having N x N pixels around each of the selected predetermined number of highest ranked local maxima, wherein the N x N pixel FOVs are selected as the identified one or more candidate ROIs; computing overlay masks comprising the identified one or more candidate ROIs from each heat map of marker expression, an overlay mask being an image mask masking out all pixels not belonging to one of the identified candidate ROIs of the heat map the overlay mask was derived from; determining one or more co-localized ROIs from the overlay masks; transferring the identified one or more co-localized ROIs to each of the plurality of single marker channel images; and counting cells within at least one identified co-localized region of interest in at least some of the plurality of single marker channel images. computing a heat map of marker expression for each of a plurality of single marker channel images, wherein heat maps of marker expressions are computed by applying a low pass filter to each of the plurality of single marker channel images, and wherein each of the plurality of single marker channel images comprise a single marker; identifying one or more candidate regions of interest, ROIs, in each heat map of marker expression by applying a local maximum filter to each heat map of marker expression and selecting a predetermined number of highest ranked local maxima, and delineating a field of view, FOV, having N x N pixels around each of the selected predetermined number of highest ranked local maxima, wherein the N x N pixel FOVs are selected as the identified one or more candidate ROIs; computing overlay masks comprising the identified one or more candidate ROIs from each heat map of marker expression, an overlay mask being an image mask masking out all pixels not belonging to one of the identified candidate ROIs of the heat map the overlay mask was derived from; determining one or more co-localized ROIs from the overlay masks; transferring the identified one or more co-localized ROIs to each of the plurality of single marker channel images; and counting cells within at least one identified co-localized region of interest in at least some of the plurality of single marker channel images.
A method of establishing a communication link between a mobile terminal and a network, the method comprising: receiving, by the mobile terminal, an indication indicating support of high-speed mobility in a cell, and an index of a root sequence from a network, said indication having a value 'TRUE' or 'FALSE'; generating, by the mobile terminal, a cyclically shifted Zadoff-Chu, ZC, sequence with zero correlation zones using an unrestricted set of cyclic shifts if the indication has the value 'FALSE' and using a restricted set of cyclic shifts if the indication has the value 'TRUE', wherein the restricted set of cyclic shifts is determined by the mobile terminal based on the index of the root sequence, and requesting, by the mobile terminal, access to the network using the generated cyclically shifted ZC sequence. receiving, by the mobile terminal, an indication indicating support of high-speed mobility in a cell, and an index of a root sequence from a network, said indication having a value 'TRUE' or 'FALSE'; generating, by the mobile terminal, a cyclically shifted Zadoff-Chu, ZC, sequence with zero correlation zones using an unrestricted set of cyclic shifts if the indication has the value 'FALSE' and using a restricted set of cyclic shifts if the indication has the value 'TRUE', wherein the restricted set of cyclic shifts is determined by the mobile terminal based on the index of the root sequence, and requesting, by the mobile terminal, access to the network using the generated cyclically shifted ZC sequence.
Sample holder for a material testing device, said sample holder comprising: - a holder body having an end face defining a plane; - a sample plate arranged at said end face of the holder body and arranged to receive a sample; - a clamping arrangement (17, 19, 20, 21, 23); characterised in that said clamping arrangement (17, 19, 20, 21, 23) comprises a clamping ring comprising: - a cylindrical portion sized to fit over said holder body; - an annular flange extending inwardly from an extremity of the cylindrical portion; - a plurality of resilient tongues extending inwardly from said annular flange; - a plurality of helical slots distributed around the cylindrical portion and each arranged to interact with a corresponding stud provided on said holder body, each helical slot comprising a plurality of notches provided at the edge of the slot situated away from the flange. - a holder body having an end face defining a plane; - a sample plate arranged at said end face of the holder body and arranged to receive a sample; - a clamping arrangement (17, 19, 20, 21, 23); - a cylindrical portion sized to fit over said holder body; - an annular flange extending inwardly from an extremity of the cylindrical portion; - a plurality of resilient tongues extending inwardly from said annular flange; - a plurality of helical slots distributed around the cylindrical portion and each arranged to interact with a corresponding stud provided on said holder body, each helical slot comprising a plurality of notches provided at the edge of the slot situated away from the flange.
Multi-functional tap, comprising an outlet tap for one or more fluids (18, 19), possibly variable in their state, a sensor device, a supply device for the fluid or fluids (18, 19) and a controller, the multi-functional tap having at least one optical display which is arranged on the outlet tap and is connected to the controller and is arranged on the front side of a tap head, characterized in that the optical display is graphics-capable and has a graphics-capable field display or a graphics-capable display each having a dot matrix of a plurality of self-illuminating display elements, preferably liquid crystals or LEDs, and wherein the multi-functional tap has a mixing device which can be controlled or regulated for differently temperature-controlled fluids, preferably hot and cold water, and a sensor device for non-contact temperature change as well as one of the at least one optical graphics-capable displays arranged on the outlet tap for the reference and/or actual values of the fluid temperature, wherein the graphics-capable optical display and the sensor device are surrounded by an infra-red- transparent cover which forms a housing which can be fastened to the upper end of the outlet tap and in which the components of the sensor device and the graphics-capable display are accommodated.
An analysis chip for setting into an analysis instrument for being employed in the analysis of a sample, the analysis chip comprising: a first unit that comprises a sample introduction portion into which the sample can be introduced; and a second unit that is configured to house the first unit, the second unit being formed in a cuboidal box shape that has a length direction aligned with a length direction of the first unit, wherein an end face of the second unit opens so as to provide an insertion port, through which the first unit can be inserted into the second unit, the first unit being formed so as to be moveable from a first state in which the sample introduction portion is positioned outside the second unit, to a second state in which the sample introduction portion is positioned inside the second unit, and the second unit comprising two side faces which serve as guide portions, the inner sides of the guide portions being configured to contact the respective side edges of the first unit for guiding the first unit from the first state to the second state, the analysis chip being characterized in that a bottom face of the second unit comprises a measurement port that is an opening, wherein an edge portion of the bottom face of the second unit that surrounds the measurement port provides a support edge onto which the first unit can be mounted, and in that, in the second state, a predetermined operation, such as radiation of measurement light or the like, can be performed through the measurement port in the bottom face of the second unit. a first unit that comprises a sample introduction portion into which the sample can be introduced; and a second unit that is configured to house the first unit, the second unit being formed in a cuboidal box shape that has a length direction aligned with a length direction of the first unit, wherein an end face of the second unit opens so as to provide an insertion port, through which the first unit can be inserted into the second unit, the first unit being formed so as to be moveable from a first state in which the sample introduction portion is positioned outside the second unit, to a second state in which the sample introduction portion is positioned inside the second unit, and the second unit comprising two side faces which serve as guide portions, the inner sides of the guide portions being configured to contact the respective side edges of the first unit for guiding the first unit from the first state to the second state, the analysis chip being characterized in that a bottom face of the second unit comprises a measurement port that is an opening, wherein an edge portion of the bottom face of the second unit that surrounds the measurement port provides a support edge onto which the first unit can be mounted, and in that, in the second state, a predetermined operation, such as radiation of measurement light or the like, can be performed through the measurement port in the bottom face of the second unit.
An automatic angle adjustment unit for use in connection to an object detection device, the object detection device causing a receiver (2A, 2B) of a detection unit to receive detection beams, for object detection, transmitted from a transmitter (1A, 1B) of a detection unit and to output a detection signal, in which the object detection device includes an angle adjustment mechanism that has a horizontal adjustment-engagement member and a vertical adjustment-engagement member, disposed adjacent to each other, which adjust a horizontal angle of the detection unit rotatable about a vertical axis and a vertical angle of the detection unit rotatable about a horizontal axis, and in which the automatic angle adjustment unit is engageable with the horizontal adjustment-engagement member and the vertical adjustment-engagement member of the object detection device, to drive both adjustment-engagement members (33, 37) from the exterior and to adjust the horizontal angle and the vertical angle of the detection unit, thereby to perform automatic angle adjustment, the automatic angle adjustment unit comprising: an engagement-drive transmission section (72, 73) that removably engages with the horizontal adjustment-engagement member and the vertical adjustment-engagement member from the exterior, and drives both adjustment-engagement members (33, 37); a driving section (74, 75) for driving the engagement-drive transmission section (72, 73); a clamping section for removably securing the automatic angle adjustment unit to the object detection device; a level input section for receiving the detection signal level inputted from the object detection device; and an adjustment unit control section for performing a control for causing the driving section (74, 75) to drive the engagement-drive transmission section (72, 73) based on the detection signal level, to adjust the horizontal angle and the vertical angle of the detection unit. an engagement-drive transmission section (72, 73) that removably engages with the horizontal adjustment-engagement member and the vertical adjustment-engagement member from the exterior, and drives both adjustment-engagement members (33, 37); a driving section (74, 75) for driving the engagement-drive transmission section (72, 73); a clamping section for removably securing the automatic angle adjustment unit to the object detection device; a level input section for receiving the detection signal level inputted from the object detection device; and an adjustment unit control section for performing a control for causing the driving section (74, 75) to drive the engagement-drive transmission section (72, 73) based on the detection signal level, to adjust the horizontal angle and the vertical angle of the detection unit.
A control entity for a communication network, comprising: a controller configured to generate a downlink control signal scheduling one or more downlink time slots (117, 117a, 117b) in which downlink data resources are provided; wherein the controller is configured to provide the downlink control signal over a downlink control resource in an earlier time slot which is chronologically earlier than the one or more downlink time slots (117, 117a, 117b) in which the downlink data resources are provided; wherein the downlink control signal comprises a downlink index, and wherein the one or more downlink time slots (117, 117a, 117b), in which the downlink data resources are provided, are indicated by the downlink index, wherein the downlink index represents at least one state; wherein each state of the downlink index corresponds to a combination of the one or more downlink time slots (117, 117a, 117b) in which the downlink data resources are provided. a controller configured to generate a downlink control signal scheduling one or more downlink time slots (117, 117a, 117b) in which downlink data resources are provided; wherein the controller is configured to provide the downlink control signal over a downlink control resource in an earlier time slot which is chronologically earlier than the one or more downlink time slots (117, 117a, 117b) in which the downlink data resources are provided; wherein the downlink control signal comprises a downlink index, and wherein the one or more downlink time slots (117, 117a, 117b), in which the downlink data resources are provided, are indicated by the downlink index, wherein the downlink index represents at least one state; wherein each state of the downlink index corresponds to a combination of the one or more downlink time slots (117, 117a, 117b) in which the downlink data resources are provided.
Extractor hood with an extractor hood housing and a pull-out screen, which is arranged in a displaceable manner with respect to the extractor hood housing, wherein the pull-out screen consists of a base body for optionally accommodating one or more filter elements and a handle strip fastened to the base body, wherein the base body of the pull-out screen comprises a centre part which accommodates the filter element or elements and which is mechanically connected to a left side part and a right side part, characterised in that the width of the handle strip and the width of the centre part is variable for the purpose of providing pull-out screens of a different width, wherein the left side part, the right side part and an operating element are the same parts in each case irrespective of the width.
An aluminum alloy comprising 0.65 - 0.90 wt. % Si, 0.11 - 0.40 wt. % Fe, 0.05 - 0.20 wt. % Cu, 0.05 - 0.22 wt. % Mn, 0.60 - 0.83 wt. % Mg, 0.0 - 0.25 wt. % Cr, 0.0 - 0.006 wt. % Ni, 0.0 - 0.15 wt. % Zn, 0.0 - 0.17 wt. % Ti, 0 - 0.05 wt. % Pb, 0 - 0.005 wt. % Be, up to 0.15 wt. % impurities, with the remainder as Al.