mhurhangee/ep-ind-claims huggingface dataset:
A phantom for calibration for use in both magnetic resonance imaging and x-ray based imaging systems, the phantom comprising: a first component having a first outer shape, a portion of the first outer shape defining part of at least one pocket; and a second component coupled to the first component and having a second outer shape, a portion of the second outer shape defining another part of the at least one pocket; wherein at least one of the first and second components comprises a reservoir, the reservoir having a shape at least a portion of which locates a centre of the at least one pocket. a first component having a first outer shape, a portion of the first outer shape defining part of at least one pocket; and a second component coupled to the first component and having a second outer shape, a portion of the second outer shape defining another part of the at least one pocket; wherein at least one of the first and second components comprises a reservoir, the reservoir having a shape at least a portion of which locates a centre of the at least one pocket.
A gyroscope comprising; a substrate; a symmetric guided mass system (200, 200a, 200b), the guided mass system comprising at least one proof-mass (102a, 102b), at least one guiding arm (104a, 104b), and at least one spring (108a, 108b); wherein the at least one proof-mass and the at least one guiding arm are disposed in a plane parallel to the substrate; the at least one proof-mass being coupled to the at least one guiding arm; the at least one guiding arm being coupled to the substrate through the at least one spring (108a, 108b); an actuator (109a, 109b, 109c, 109d) for vibrating the at least one proof-mass in a first direction; and a transducer for sensing motion of the at least one proof-mass normal to the plane; wherein, when driven, the at least one proof-mass is adapted to translate in the first direction and the at least one guiding arm is adapted to rotate in the plane; wherein the at least one guiding arm and the at least one proof-mass are able to rotate out of the plane about a first sense axis, in response to angular velocity about a first input axis that is in the plane and orthogonal to the first direction, the first sense axis being in the plane and parallel to the first direction; wherein the at least one proof-mass comprises at least two proof masses (102a, 102b), the at least two proof-masses being coupled to the at least one guiding arm, and the at least one guiding arm being coupled to the substrate through the at least one spring, such that the symmetric guided mass system is symmetrical about an axis in the first direction; wherein the two proof masses are adapted to move in anti-phase along the first direction; wherein the at least one guiding arm and the two proof-masses are able to rotate out of the plane about the first sense axis in response to angular velocity about the first input axis that is in the plane. an actuator (109a, 109b, 109c, 109d) for vibrating the at least one proof-mass in a first direction; and a transducer for sensing motion of the at least one proof-mass normal to the plane; wherein the at least one guiding arm and the at least one proof-mass are able to rotate out of the plane about a first sense axis, in response to angular velocity about a first input axis that is in the plane and orthogonal to the first direction, the first sense axis being in the plane and parallel to the first direction; wherein the at least one proof-mass comprises at least two proof masses (102a, 102b), the at least two proof-masses being coupled to the at least one guiding arm, and the at least one guiding arm being coupled to the substrate through the at least one spring, such that the symmetric guided mass system is symmetrical about an axis in the first direction; wherein the two proof masses are adapted to move in anti-phase along the first direction; wherein the at least one guiding arm and the two proof-masses are able to rotate out of the plane about the first sense axis in response to angular velocity about the first input axis that is in the plane.
Rubber compound having at least two glass transition temperatures Tg, denoted Tg1 and Tg2, and based on at least two rubber compositions denoted C1 and C2, the rubber composition C1 comprising at least one elastomer E1, and having the glass transition temperature Tg1, the composition C2 comprising at least one elastomer E2 and a reinforcing filler, the elastomer E2 being different from the elastomer E1, and having the glass transition temperature Tg2, characterized in that: - the glass transition temperature Tg1 of composition C1 is above or equal to -50°C, - the rubber compound satisfies the mathematical relationship Tg1-Tg2 ≥ 23°C, - the rubber compound has a loss factor profile exhibiting the change in tan δ as a function of the temperature in °C, the loss factor profile being measured over a temperature range extending from -80°C to 60°C at a frequency of 10 Hz and a constant stress of 0.7 MPa and exhibiting one or more peaks, this profile being such that all the tan δ peaks present at a temperature above the glass transition temperature Tg1 have a width at half height less than or equal to 23°C; and - the elastomer E1 is predominant in the rubber compound. - the glass transition temperature Tg1 of composition C1 is above or equal to -50°C, - the rubber compound satisfies the mathematical relationship Tg1-Tg2 ≥ 23°C, - the rubber compound has a loss factor profile exhibiting the change in tan δ as a function of the temperature in °C, the loss factor profile being measured over a temperature range extending from -80°C to 60°C at a frequency of 10 Hz and a constant stress of 0.7 MPa and exhibiting one or more peaks, this profile being such that all the tan δ peaks present at a temperature above the glass transition temperature Tg1 have a width at half height less than or equal to 23°C; and - the elastomer E1 is predominant in the rubber compound.
Device for regulating an air stream for an air inlet of a front face module of a motor vehicle, comprising a support frame in which is installed a plurality of shut-off flaps pivoting between a closed position and an open position, characterized in that the regulating device comprises a recess intended to receive an electronic detection component, the recess being defined by a housing comprising a hollow space in which the electronic detection component is contained.
A method of improving nanotopography of a surface of a wafer sliced from an ingot (2, 12) by using a wire saw apparatus (10, 20), at least comprising improving straightness of feed of a work feed table (3, 13) which is included in the wire saw apparatus and used for feeding the ingot to a wire row (1, 11) formed by winding a wire around a plurality of rollers (5, 15) (i) by adjusting an interval between attachment holes and tightening torque of bolts, the holes being used to attach a linear-motion guide for linearly guiding the work feed table to the wire saw apparatus by using the bolts, or (ii) by setting a direction of bolts used to attach the linear-motion guide in parallel with a wire traveling direction, and thereby improving slice waviness having periodicity which is nanotopography of the surface of the wafer.
A method for producing an improved microalgal strain having at least a 5% improvement in oil titer relative to a parental microalgal strain, the method comprising cultivating a parental microalgal strain in the presence of an inhibitor of a monosaccharide transporter and isolating an improved microalgal strain that is capable of growth in the presence of the inhibitor of the monosaccharide transporter and that has at least a 5% improvement in oil titer relative to a parental microalgal strain.
An engineering work for monitoring and controlling the flow rate and the quality of effluent in a discharge sewer, the work being in the form of a box having an effluent inlet, an effluent outlet, and internally defining an effluent arrival chamber that includes a progressive widening and an energy dissipation system, the arrival chamber being connected to the effluent inlet and including a settling zone for the effluent as stabilized by the progressive widening and the energy dissipation system, the work being provided with a measurement device having at least one sensor for measuring the flow rate of the effluent in a measurement chamber, the work being characterized in that the measurement chamber communicates with the arrival chamber via an overflow passage extending over a step that is extended inside the measurement chamber by a lateral overflow, the measurement device further including a sensor for sensing the quality of the effluent at the lateral overflow.
A process for forming a resist pattern comprising the steps of applying a chemically amplified resist composition onto a processable substrate which comprises an outermost surface layer of chromium-containing material, to form a resist film, exposing the resist film to a pattern of high-energy radiation, and developing the exposed resist film with an alkaline developer to form a resist pattern; said chemically amplified resist composition comprising a polymer comprising units of the general formula, and units of the general formula: wherein s is each independently 0 or 1, t is each independently an integer of 0 to 2, R 5 is each independently hydrogen or a C 1 -C 6 alkyl group, B 1 is a single bond or a C 1 -C 10 alkylene group which may be separated by an ether bond, a is an integer of 0 to 3, and b is an integer of 1 to 3, wherein u is 0 or 1, v is an integer of 0 to 2, R 5 is each independently hydrogen or a C 1 -C 6 alkyl group, B 2 is a single bond or a C 1 -C 10 alkylene group which may be separated by an ether bond, a is an integer of 0 to 3, b is 0 or 1, c is an integer of 1 to 3, in the case of c=1, X is an acid labile group, and in the case of c=2 or 3, X is hydrogen or an acid labile group, at least one X being an acid labile group, said polymer further comprising units having the general formula: wherein R 1 is each independently hydrogen, fluorine, methyl or trifluoromethyl, Rf is each independently hydrogen, fluorine, trifluoromethyl or pentafluoroethyl, not all Rf are hydrogen, A is a divalent C 1 -C 10 hydrocarbon group in which one, some or all hydrogen atoms may be substituted by fluorine, and in which oxygen may be substituted on or for methylene, R 2, R 3 and R 4 are each independently a substituted or unsubstituted straight or branched C 1 -C 10 alkyl, alkenyl or oxoalkyl group or a substituted or unsubstituted C 6 -C 18 aryl, aralkyl or aryloxoalkyl group, or at least two of R 2, R 3 and R 4 may bond together to form a ring or rings with the sulfur atom, and units having the general formula: wherein d is an integer of 0 to 4, R 6 is each independently hydrogen, an optionally halogenated C 1 -C 6 alkyl or primary or secondary alkoxy group, or an optionally halogenated C 1 -C 7 alkylcarbonyloxy group, wherein units containing an aromatic ring structure are present in an amount of at least 60 mol%, and the units having formula are present in an amount of less than 5 mol%, based on the entire recurring units of the polymer.
A control device for controlling a control object apparatus comprising: a task execution unit configured to execute a task including a program; a storage unit configured to store a global variable capable of being referenced and updated in the program and reference data (RD1, RD2) corresponding to the global variable; a reference data management unit configured to manage reference data (RD1, RD2) stored in the storage unit, wherein the task execution unit is configured so as to execute a plurality of the tasks in parallel with one another, the plurality of tasks include an update task capable of updating and referencing the global variable and a reference task capable of referencing the reference data (RD1, RD2), characterized in that: the reference data management unit is configured so as to alter the value of reference data (RD1, RD2) to the value of the global variable, prior to executing the reference task, and the control device further comprises a collection unit configured to accumulate the global variable when the task including the program is executed by the task execution unit; the collection unit is configured to accumulate the reference data (RD1, RD2) when the plurality of tasks are executed by the task execution unit; and each task of the plurality of tasks is cyclically executed in time intervals based on each task. a task execution unit configured to execute a task including a program; a storage unit configured to store a global variable capable of being referenced and updated in the program and reference data (RD1, RD2) corresponding to the global variable; a reference data management unit configured to manage reference data (RD1, RD2) stored in the storage unit, wherein the task execution unit is configured so as to execute a plurality of the tasks in parallel with one another, the plurality of tasks include an update task capable of updating and referencing the global variable and a reference task capable of referencing the reference data (RD1, RD2), characterized in that: the reference data management unit is configured so as to alter the value of reference data (RD1, RD2) to the value of the global variable, prior to executing the reference task, and the control device further comprises a collection unit configured to accumulate the global variable when the task including the program is executed by the task execution unit; the collection unit is configured to accumulate the reference data (RD1, RD2) when the plurality of tasks are executed by the task execution unit; and the reference data management unit is configured so as to alter the value of reference data (RD1, RD2) to the value of the global variable, prior to executing the reference task, and the control device further comprises a collection unit configured to accumulate the global variable when the task including the program is executed by the task execution unit; the collection unit is configured to accumulate the reference data (RD1, RD2) when the plurality of tasks are executed by the task execution unit; and each task of the plurality of tasks is cyclically executed in time intervals based on each task.
Wall frame, with one or more wall connection sections (12, 12a, 12b) for receiving one or more wall coverings, in particular one or more gypsum boards, and a door leaf receiving section for receiving at least one door leaf (15, 15a, 15b) without a frame, wherein the frameless wall frame including wall connection section(s) (12, 12a, 12b) and door panel receiving section is made of gypsum material or fibre cement material panels and is adapted to be mounted in dry construction and provided with wall planking, wherein the one or more wall connection sections (12, 12a, 12b) comprise one or more step offsets for receiving the one or more wall planking(s). a door leaf receiving section for receiving at least one door leaf (15, 15a, 15b) without a frame, wherein the frameless wall frame including wall connection section(s) (12, 12a, 12b) and door panel receiving section is made of gypsum material or fibre cement material panels and is adapted to be mounted in dry construction and provided with wall planking, wherein the one or more wall connection sections (12, 12a, 12b) comprise one or more step offsets for receiving the one or more wall planking(s).
An apparatus for recognizing the discard state of a high-strength fiber rope in use at lifting gear, in particular a crane, comprising a detection device for detecting at least one rope parameter as well as comprising an evaluation device for evaluating the rope parameter and for providing a discard signal in dependence on the rope parameter evaluation, characterized in that the detection device comprises detection means for detecting a lengthening of the fiber rope and the evaluation device compares the determined lengthening with a permitted maximum lengthening and provides the discard signal on an exceeding of the permitted maximum lengthening.
Balancing or measuring apparatus which comprises a main body, rotating about a rotational axis, with a receiving opening for receiving a coupling shaft of a rotor, and a centring element for centring the rotor in the receiving opening, the centring element having at least one supporting region which bears against the coupling shaft and is elastically resilient in the radial direction, characterized in that the centring element comprises two supporting limbs (11, 12) which are spaced apart axially from one another for support on the main body and which bear against an inner wall of the main body.
Protection method of a piece of equipment: - provide a protection device comprising: ∘ a frame provided with a plate, ∘ a fall detection system configured to detect a downward movement of the frame representative of tilting of the frame and to emit a fall signal, ∘ a fixing device configured to fix the piece of equipment onto the plate of the protection device, - detect a downward movement of the frame representative of tilting and emit a fall signal by means of the fall detection system, - inflate at least one casing designed to surround the piece of equipment on receipt of the fall signal by means of the inflation device, the at least one casing being fixed to the frame, protection method characterised in that detection of an upward movement of the frame preceding detection of said downward movement of the frame prevents receipt of a fall signal by the inflation device, detection of the upward movement of the frame and detection of said downward movement of the frame being separated by less than 10 seconds. - provide a protection device comprising: ∘ a frame provided with a plate, ∘ a fall detection system configured to detect a downward movement of the frame representative of tilting of the frame and to emit a fall signal, ∘ a fixing device configured to fix the piece of equipment onto the plate of the protection device, ∘ a frame provided with a plate, ∘ a fall detection system configured to detect a downward movement of the frame representative of tilting of the frame and to emit a fall signal, ∘ a fixing device configured to fix the piece of equipment onto the plate of the protection device, - detect a downward movement of the frame representative of tilting and emit a fall signal by means of the fall detection system, - inflate at least one casing designed to surround the piece of equipment on receipt of the fall signal by means of the inflation device, the at least one casing being fixed to the frame,
A method for combining data from multiple radar signals on a single plan position indicator display, comprising: receiving, from a first radar device having a first angular range of visibility, first radar signal data corresponding to the first angular range of visibility; receiving, from a second radar device having a second angular range of visibility, second radar signal data corresponding to the second angular range of visibility; characterized by compensation processing on at least a portion of the second radar signal data to form modified second radar signal data that is correlated to the first radar signal data, by applying a motion compensation algorithm to the second radar signal data, wherein the motion compensation algorithm modifies the azimuth angles and ranges of the second radar signal data such that the azimuth angles and ranges of the modified second radar signal are those that would have been measured if the second radar signal device had been transmitting electromagnetic wave pulses synchronously with the first radar device, and wherein a parallax compensation is applied to the second radar signal such that the azimuth angles of the modified second radar signal are the azimuth angles that would have been measured if the second radar device were located at the same location as the first radar device; combining at least a portion of the first radar signal data with at least a portion of the modified second radar signal data to form combined radar signal data; and generating, based on the combined radar signal data, a display on a radar PPI display. receiving, from a first radar device having a first angular range of visibility, first radar signal data corresponding to the first angular range of visibility; receiving, from a second radar device having a second angular range of visibility, second radar signal data corresponding to the second angular range of visibility; characterized by compensation processing on at least a portion of the second radar signal data to form modified second radar signal data that is correlated to the first radar signal data, by applying a motion compensation algorithm to the second radar signal data, wherein the motion compensation algorithm modifies the azimuth angles and ranges of the second radar signal data such that the azimuth angles and ranges of the modified second radar signal are those that would have been measured if the second radar signal device had been transmitting electromagnetic wave pulses synchronously with the first radar device, and wherein a parallax compensation is applied to the second radar signal such that the azimuth angles of the modified second radar signal are the azimuth angles that would have been measured if the second radar device were located at the same location as the first radar device; combining at least a portion of the first radar signal data with at least a portion of the modified second radar signal data to form combined radar signal data; and generating, based on the combined radar signal data, a display on a radar PPI display.
A manufacturing method of an organic solar cell module, comprising: (a) a step of coating a first electrode material on the top of a substrate; (b) a step of forming one or more sub cell lower electrode units by etching the coated first electrode material in a staggered pattern, wherein, in the etching in the staggered pattern, the first electrode material is etched so that one or more horizontal lines are formed and the first electrode material is etched so that vertical lines, positioned above and below the one or more horizontal lines, are staggered to each other; (c) a step of stripe-pattern coating a first buffer layer and a photoactive layer on the sub cell lower electrode unit; and (d) a step of coating second electrode materials on the photoactive layer to correspond to one or more sub cell lower electrode units one to one. (a) a step of coating a first electrode material on the top of a substrate; (b) a step of forming one or more sub cell lower electrode units by etching the coated first electrode material in a staggered pattern, wherein, in the etching in the staggered pattern, the first electrode material is etched so that one or more horizontal lines are formed and the first electrode material is etched so that vertical lines, positioned above and below the one or more horizontal lines, are staggered to each other; (c) a step of stripe-pattern coating a first buffer layer and a photoactive layer on the sub cell lower electrode unit; and (d) a step of coating second electrode materials on the photoactive layer to correspond to one or more sub cell lower electrode units one to one.