mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a longitudinal slotted grating element from concrete, which element comprises at least two mutually spaced longitudinal beams (142, 144, 146) arranged in a plane and at least two mutually spaced transverse beams (141, 143, 145) arranged in the plane of the longitudinal beams (142, 144, 146) and crossing the at least two longitudinal beams (142, 144, 146), a longitudinal slot being defined in each case by two adjacent longitudinal beams (142, 144, 146) and two adjacent transverse beams (141, 143, 145), the method comprising the following steps: providing a casting mould on a vibrating table, the casting mould having casting spaces (132a-c) which are open at the top and which determine the shape of the longitudinal beams (142, 144, 146) and transverse beams (141, 143, 145); filling the open casting spaces (132a-c) with concrete to form the longitudinal beams (142, 144, 146) and transverse beams (141, 143, 145); vibrating the casting mould during the filling process in order to achieve a uniform distribution of concrete in the casting spaces (132a-c); generating a surface structure (150, 250, 350, 450) at least along the longitudinal beams (142, 144, 146) by at least one stamping element that produces a surface structure (150, 250, 350, 450) being locally impressed into the concrete of the longitudinal beams (142, 144, 146) on the exposed surface of the longitudinal beams (142, 144, 146), the surface structure (150, 250, 350, 450) being produced by exerting a vibratory movement on the at least one stamping element; removing the at least one stamping element impressed into the concrete; and releasing the longitudinal slotted grating element thus formed from the casting mould. providing a casting mould on a vibrating table, the casting mould having casting spaces (132a-c) which are open at the top and which determine the shape of the longitudinal beams (142, 144, 146) and transverse beams (141, 143, 145); filling the open casting spaces (132a-c) with concrete to form the longitudinal beams (142, 144, 146) and transverse beams (141, 143, 145); vibrating the casting mould during the filling process in order to achieve a uniform distribution of concrete in the casting spaces (132a-c); generating a surface structure (150, 250, 350, 450) at least along the longitudinal beams (142, 144, 146) by at least one stamping element that produces a surface structure (150, 250, 350, 450) being locally impressed into the concrete of the longitudinal beams (142, 144, 146) on the exposed surface of the longitudinal beams (142, 144, 146), the surface structure (150, 250, 350, 450) being produced by exerting a vibratory movement on the at least one stamping element; removing the at least one stamping element impressed into the concrete; and releasing the longitudinal slotted grating element thus formed from the casting mould.
An information processing system, comprising: a portable terminal configured to display an image; an imaging device provided to be separate from the portable terminal; and an information processing device, wherein the information processing device is configured to be connected to the portable terminal and the imaging device, and includes: an image acquisition unit configured to receive an image (Img) captured by the imaging device; a recognition unit configured to acquire a recognition result of a user of the portable terminal based on the received image (Img), wherein the recognition result includes a position (Pu) of the user; an image determination unit configured to determine an object based on the recognition result; and a display control unit configured to control display of the object, the object being added to the received image, on the portable terminal. a portable terminal configured to display an image; an imaging device provided to be separate from the portable terminal; and an information processing device, wherein the information processing device is configured to be connected to the portable terminal and the imaging device, and includes: an image acquisition unit configured to receive an image (Img) captured by the imaging device; a recognition unit configured to acquire a recognition result of a user of the portable terminal based on the received image (Img), wherein the recognition result includes a position (Pu) of the user; an image determination unit configured to determine an object based on the recognition result; and a display control unit configured to control display of the object, the object being added to the received image, on the portable terminal. an image acquisition unit configured to receive an image (Img) captured by the imaging device; a recognition unit configured to acquire a recognition result of a user of the portable terminal based on the received image (Img), wherein the recognition result includes a position (Pu) of the user; an image determination unit configured to determine an object based on the recognition result; and a display control unit configured to control display of the object, the object being added to the received image, on the portable terminal.
A medical system for therapy delivery, the medical system comprising: a plurality of hardware sensing sources configured to generate sensor data; and a processing circuit configured to: receive the sensor data generated by the plurality of hardware sensing sources; determine confidence levels for sensor data generated by each of the plurality of sensing sources, wherein each of the confidence levels of the sensor data from each of the sensing sources is a measure of accuracy of the sensor data received from respective sensing sources; determine that the confidence levels are compliant with conditions of a rule of a plurality of rules, wherein each rule is associated with a respective set of available therapy parameter values for respective confidence levels, and to determine the one or more therapy parameter values based on the set of available therapy parameter values associated with the rule; and cause delivery of therapy based on the determined one or more therapy parameter values. a plurality of hardware sensing sources configured to generate sensor data; and a processing circuit configured to: receive the sensor data generated by the plurality of hardware sensing sources; determine confidence levels for sensor data generated by each of the plurality of sensing sources, wherein each of the confidence levels of the sensor data from each of the sensing sources is a measure of accuracy of the sensor data received from respective sensing sources; determine that the confidence levels are compliant with conditions of a rule of a plurality of rules, wherein each rule is associated with a respective set of available therapy parameter values for respective confidence levels, and to determine the one or more therapy parameter values based on the set of available therapy parameter values associated with the rule; and cause delivery of therapy based on the determined one or more therapy parameter values. receive the sensor data generated by the plurality of hardware sensing sources; determine confidence levels for sensor data generated by each of the plurality of sensing sources, wherein each of the confidence levels of the sensor data from each of the sensing sources is a measure of accuracy of the sensor data received from respective sensing sources; determine that the confidence levels are compliant with conditions of a rule of a plurality of rules, wherein each rule is associated with a respective set of available therapy parameter values for respective confidence levels, and to determine the one or more therapy parameter values based on the set of available therapy parameter values associated with the rule; and cause delivery of therapy based on the determined one or more therapy parameter values.
A structured illumination microscopy instrument comprising: a source for emitting a beam of coherent monochromatic light; a splitter for receiving said monochromatic beam of light from the source and for splitting the beam into at least three separate coherent beams of said light; an illumination phase control including at least one rotatable window, the or each rotatable window being rotatable to apply a phase shift to a respective one of said at least three beams by means of changing the angle of incidence between the respective beam and the window; and an objective lens to focus the at least three beams to form an interference pattern, wherein the illumination phase control is able to change the position of the interference pattern by means of rotating the at least one rotatable window with respect to the path of said one of said at least three beams; the instrument further comprising an illumination pattern rotator disposed between the phase control and the objective lens, the pattern rotator being adapted to rotate the at least three beams output from the phase control, which results in the interference pattern to be rotated through the same angle, wherein the illumination phase control including at least one rotatable window further comprises at least one pair of rotatable windows, the or each pair positioned to intersect one of the at least three beams. a source for emitting a beam of coherent monochromatic light; a splitter for receiving said monochromatic beam of light from the source and for splitting the beam into at least three separate coherent beams of said light; an illumination phase control including at least one rotatable window, the or each rotatable window being rotatable to apply a phase shift to a respective one of said at least three beams by means of changing the angle of incidence between the respective beam and the window; and an objective lens to focus the at least three beams to form an interference pattern, wherein the illumination phase control is able to change the position of the interference pattern by means of rotating the at least one rotatable window with respect to the path of said one of said at least three beams; the instrument further comprising an illumination pattern rotator disposed between the phase control and the objective lens, the pattern rotator being adapted to rotate the at least three beams output from the phase control, which results in the interference pattern to be rotated through the same angle, wherein the illumination phase control including at least one rotatable window further comprises at least one pair of rotatable windows, the or each pair positioned to intersect one of the at least three beams.
A composite material part comprising at least: - a fiber preform forming fiber reinforcement comprising a stack of at least two fiber plies that are not woven together, each of the fiber plies being made of an interlock weave three-dimensional fabric and each of the fiber plies having a number of warp yarn layers or a number of weft yarn layers that is greater than or equal to three; and - a matrix present in the pores of the fiber preform. - a fiber preform forming fiber reinforcement comprising a stack of at least two fiber plies that are not woven together, each of the fiber plies being made of an interlock weave three-dimensional fabric and each of the fiber plies having a number of warp yarn layers or a number of weft yarn layers that is greater than or equal to three; and - a matrix present in the pores of the fiber preform.
A multi-composite electrochemical cell substantially consisting of a thin polymer membrane comprising three different adjacent sectors (S1, S2, S3), which are made of the same appropriately seamlessly modified polymer, incorporating in said polymer one or more conductive phases, or conductive fillers, such as graphene, metal, or a combination thereof, and wherein: • in the first sector, the polymer material incorporates graphene nanoplatelets and acts as a cathode; • in the second sector, interposed between the other two, the polymer material acts as an insulating spacer; • in the third sector, the polymer material incorporates graphene nanoplatelets and a metal filler or immersed metal contact rheophore, with negative standard reduction potential, and acts as an anode; wherein said metal filler is in the form of dispersed powder or dispersed flakes, or of a thin sheet incorporated in the polymer. • in the first sector, the polymer material incorporates graphene nanoplatelets and acts as a cathode; • in the second sector, interposed between the other two, the polymer material acts as an insulating spacer; • in the third sector, the polymer material incorporates graphene nanoplatelets and a metal filler or immersed metal contact rheophore, with negative standard reduction potential, and acts as an anode;
An electrically powered liquid heating vessel comprising means for illuminating a feature on a substantially transparent or translucent body of the vessel by projecting or diffusing a light on to an end of the transparent or translucent vessel body, the means for illuminating being provided through or beneath an element plate of the vessel, characterised in that the element plate comprises a peripheral channel for receiving the end of the vessel body and in that the peripheral channel of the element plate comprises an optically transmissive sealant material for securing and sealing the end of the vessel body within the peripheral channel.
A yarn winder (4, 74, 134) comprising: a base; a bobbin holder which is rotatably supported by the base, which extends along an axial direction which is along the horizontal direction, and to which bobbins, which are capable of respectively winding yarns, are attached to be aligned in the axial direction; a contact roller which extends in the axial direction and which makes contact with outer circumferential surfaces of packages formed by winding the yarns onto the respective bobbins; and a first cover member (41, 81, 141) which is provided in at least a part of an area provided upstream of a contact point in a rotational direction of each of the packages and which is provided along a circumferential direction of each of the packages, and the contact point being between the packages and the contact roller, characterized in that the yarn winder comprises a second cover member (51, 151) which is provided upstream of the contact point in the rotational direction and provided downstream of the first cover member (41, 81, 141) in the rotational direction, the second cover member (51, 151) guiding air, which flows toward the contact point in accordance with rotation of the packages, to gaps between the adjacent packages. a bobbin holder which is rotatably supported by the base, which extends along an axial direction which is along the horizontal direction, and to which bobbins, which are capable of respectively winding yarns, are attached to be aligned in the axial direction; a contact roller which extends in the axial direction and which makes contact with outer circumferential surfaces of packages formed by winding the yarns onto the respective bobbins; and a first cover member (41, 81, 141) which is provided in at least a part of an area provided upstream of a contact point in a rotational direction of each of the packages and which is provided along a circumferential direction of each of the packages, and the contact point being between the packages and the contact roller, characterized in that the yarn winder comprises a second cover member (51, 151) which is provided upstream of the contact point in the rotational direction and provided downstream of the first cover member (41, 81, 141) in the rotational direction, the second cover member (51, 151) guiding air, which flows toward the contact point in accordance with rotation of the packages, to gaps between the adjacent packages.
An exhaust gas purification device including an adding valve that is located in an exhaust passage of an internal combustion engine and adds a solution of a precursor of ammonia to exhaust gas, a selective catalytic reduction unit (41, 42) that reduces nitrogen oxides in the exhaust gas using ammonia generated from the solution as a reducing agent, an oxidation catalytic unit that oxidizes the ammonia exiting the selective catalytic reduction unit (41, 42), and an addition amount control unit configured to control an addition amount of the solution of the adding valve wherein the adding valve, the selective catalytic reduction unit (41, 42), and the oxidation catalytic unit are arranged in this order from an upstream side of the exhaust passage, the exhaust gas purification device characterized in that: the amount of nitrogen oxides in the exhaust gas entering the selective catalytic reduction unit (41, 42) is referred to as an entering NOx amount; the amount of nitrogen oxides exiting the oxidation catalytic unit is referred to as an exiting NOx amount; and the addition amount control unit is configured so that when the exiting NOx amount of the oxidation catalytic unit is greater than the entering NOx amount of the selective catalytic reduction unit (41, 42), the addition amount control unit executes an increasing process that increases the addition amount of the solution as compared with when the exiting NOx amount of the oxidation catalytic unit is less than or equal to the entering NOx amount of the selective catalytic reduction unit (41, 42). the amount of nitrogen oxides in the exhaust gas entering the selective catalytic reduction unit (41, 42) is referred to as an entering NOx amount; the amount of nitrogen oxides exiting the oxidation catalytic unit is referred to as an exiting NOx amount; and the addition amount control unit is configured so that when the exiting NOx amount of the oxidation catalytic unit is greater than the entering NOx amount of the selective catalytic reduction unit (41, 42), the addition amount control unit executes an increasing process that increases the addition amount of the solution as compared with when the exiting NOx amount of the oxidation catalytic unit is less than or equal to the entering NOx amount of the selective catalytic reduction unit (41, 42).
Use of a kit in the in vitro detection or diagnosis of esophageal cancer, comprising nucleic acid(s) capable of specifically binding to a polynucleotide of an esophageal cancer marker: miR-204-3p.
A tissue expander comprising: an outer shell configured to retain a fluid; an injection dome comprising a self-sealing septum region arranged through said outer shell, said injection dome adapted to accept a hypodermic needle to fill said outer shell with fluid; a self-sealing patch arranged around said injection dome and along said outer shell, said self-sealing patch comprising: a first sheet having a first sheet perimeter and forming a first central opening; a second sheet having a second sheet perimeter and forming a second central opening; an outer washer arranged between said first and second sheets at said first sheet perimeter and said second sheet perimeter; and, a second washer arranged between said first and second sheets at said first central opening and said second central opening; wherein said first sheet and said second sheet bound an annular space formed between said outer washer and said inner washer, said annular space filled with a self-sealing material. an outer shell configured to retain a fluid; an injection dome comprising a self-sealing septum region arranged through said outer shell, said injection dome adapted to accept a hypodermic needle to fill said outer shell with fluid; a self-sealing patch arranged around said injection dome and along said outer shell, said self-sealing patch comprising: a first sheet having a first sheet perimeter and forming a first central opening; a second sheet having a second sheet perimeter and forming a second central opening; an outer washer arranged between said first and second sheets at said first sheet perimeter and said second sheet perimeter; and, a second washer arranged between said first and second sheets at said first central opening and said second central opening; a first sheet having a first sheet perimeter and forming a first central opening; a second sheet having a second sheet perimeter and forming a second central opening; an outer washer arranged between said first and second sheets at said first sheet perimeter and said second sheet perimeter; and, a second washer arranged between said first and second sheets at said first central opening and said second central opening; wherein said first sheet and said second sheet bound an annular space formed between said outer washer and said inner washer, said annular space filled with a self-sealing material.
A control device for a network system having a plurality of networks, each network comprising a master processing unit (102, 104, 202, 404) and one or a plurality of slave processing units (204, 304, 402, 502), wherein the control device has the master processing unit (102, 104, 202, 404), the control device is configured to hold characteristic information (1166, 2166, 3166, 4166, 5166) indicating that the device has the master processing unit (102, 104, 202, 404), the control device being characterized in that the master processing unit (102, 104, 202, 404) comprises a device search unit (1022, 1042, 2022, 4042) configured to acquire characteristic information (1166, 2166, 3166, 4166, 5166) from each of one or a plurality of devices connected to a network managed by the master processing unit (102, 104, 202, 404) and to generate single-layer network configuration information (1021, 1041, 2021, 4041) indicating information of each of one or a plurality of devices connected to the network managed by the master processing unit (102, 104, 202, 404), and the control device comprises a network management unit configured to acquire single-layer network configuration information (1021, 1041, 2021, 4041) from each master processing unit (102, 104, 202, 404) comprised in the network system to generate multilayer network configuration information indicating a connection relationship of each device in the network system.
A printing apparatus, comprising: a printing unit configured to perform printing on a printing medium; a transporting belt configured to transport the printing medium, the transporting belt having an endless shape; and a roller (24,25) configured to circulate the transporting belt, the roller having a cylindrical shape, wherein a magnetic scale is arranged at the transporting belt along a transport direction of the printing medium, the magnetic scale having a magnetic pole changing at a predetermined pitch, the roller (24,25) has an outer circumferential surface constituted of a magnetic body, and is in contact with the transporting belt at the outer circumferential surface, and charaterised in that a circumferential length of the outer circumferential surface of the roller is an integer multiple of the pitch of the magnetic scale. a printing unit configured to perform printing on a printing medium; a transporting belt configured to transport the printing medium, the transporting belt having an endless shape; and a roller (24,25) configured to circulate the transporting belt, the roller having a cylindrical shape, wherein a magnetic scale is arranged at the transporting belt along a transport direction of the printing medium, the magnetic scale having a magnetic pole changing at a predetermined pitch, the roller (24,25) has an outer circumferential surface constituted of a magnetic body, and is in contact with the transporting belt at the outer circumferential surface, and charaterised in that a circumferential length of the outer circumferential surface of the roller is an integer multiple of the pitch of the magnetic scale.