mhurhangee/ep-ind-claims huggingface dataset:
A tissue piece treating apparatus capable of performing prescribed treatments for producing a microscopic specimen of a tissue piece taken from a living body, said apparatus comprising: a main body; a processing chamber for accommodating a tissue piece; a plurality of chemical storage tanks (14,16) for storing chemicals with sequentially different concentrations for performing immersion treatment of the tissue piece; a selection valve for connecting the processing chamber to the selected chemical storage tank (14,16); an open/close valve being provided to a pipe connecting the selection valve to the processing chamber so as to open/close the pipe; a pump for increasing and reducing inner pressure of the processing chamber; a detection sensor for detecting that a prescribed amount of a chemical is supplied to the processing chamber; and a control section attached to a main body of said apparatus, the control section controlling the selection valve, the open/close valve and the pump so as to supply the chemical stored in the selected chemical storage tank (14,16) to the processing chamber, whose inner pressure has been reduced by the pump, via the open/close valve and so as to discharge the chemical, which has been used for performing immersion treatment of the tissue piece, from the processing chamber, whose inner pressure has been increased by the pump, and return the same to the selected chemical storage tank (14,16) via the selection valve, whereby the immersion treatment of the tissue piece can be performed in the chemicals from the lowest concentration to the highest concentration sequentially; and a new chemical tank (15,17), the apparatus being characterised in that there are two new chemical tanks (15,17) which are attached to respective sidewall faces of the main body, the new chemical tanks (15,17) having larger capacities than the chemical storage tanks (14,16) and serving to store unused new chemicals of the same types as the chemicals stored in the chemical storage tanks (14,16); said new chemical tanks (15,17) having inner wall faces respectively reinforced by reinforcing members so as to prevent deformation of the new chemical tanks (15,17) when inner pressure is reduced and increased for supplying and discharging the new chemical, the attachment of the new chemical tanks (15,17) to the sidewall faces of the body serving to improve the structural strength of the apparatus; pipes from the new chemical tanks (15,17) being connected to the selection valve so as to supply the new chemicals stored in the new chemical tanks to the processing chamber, and wherein the control section serves to control the selection valve, the open/close valve and the pump so that, in use, a new chemical is supplied in an amount corresponding to an insufficiency of the amount of the chemical from one of the new chemical tanks (15,17) to the processing chamber when a detection sensor detects that the amount of the chemical supplied to the processing chamber is insufficient, whereby the immersion treatment can be continued.
Manipulator having a manipulator arm at the free end of which a manipulator flange is provided on which an end effector having a plurality of application devices (9.1, 9.2, 9.3) for machining a workpiece is held, wherein the manipulator flange is rotatable about hand axes (20, 21, 22), and a first hand axis extends in the direction of the longitudinal axis of the manipulator arm, a second hand axis extends transversely to the first hand axis and a third hand axis lies transversely to the second hand axis, wherein the end effector is rotatably mounted on the wrist of the manipulator arm, wherein the application devices (9.1, 9.2, 9.3) follow one another in a circumferential direction on a lateral surface of an imaginary cone, and wherein an application device (9.1, 9.2, 9.3) can be moved into an active operating position by rotation of the manipulator flange about the third hand axis.
An optical measurement device comprising an evaluation unit and a colour camera connected to the evaluation unit, wherein the colour camera is adapted for measuring light information in the flame and for providing the measurement results to the evaluation unit; characterized in that the evaluation unit is adapted for evaluating the measurement results to determine: • the temperature in the flame based on the measured light information, for detecting hot spots where the temperature is essentially higher than desired, and • a particle size distribution of a fuel present in the flame, wherein • a black body radiation spectrum modified by Mie scattering theory that matches the measurement results is determined as a unique distribution for each temperature and each Mie scattering correction value, with the Mie scattering correction value being a measure for the particle size distribution. • the temperature in the flame based on the measured light information, for detecting hot spots where the temperature is essentially higher than desired, and • a particle size distribution of a fuel present in the flame, • a black body radiation spectrum modified by Mie scattering theory that matches the measurement results is determined as a unique distribution for each temperature and each Mie scattering correction value, with the Mie scattering correction value being a measure for the particle size distribution.
An in vitro method of detecting the presence of different target analytes in a sample, the method comprising: providing the sample and a plurality of reporter particles having ω different colours to a substrate, the substrate having α assigned spatial regions; and determining, on the substrate, the presence of a colour arising from the reporter particles in each of α assigned spatial regions on the substrate, wherein each of the assigned spatial regions on the substrate is configured to immobilize a target analyte or a group of target analytes that is different from the other assigned spatial regions, wherein reporter particles of each different colour are configured to couple to a target analyte that is different from that of the reporter particles of the other different colours, and wherein α is an integer that is at least two and ω is an integer that is at least three, wherein the reporter particles are configured to give rise to a secondary colour when reporter particles of two or more different colours are colocalized in the same spatial region, wherein the secondary colour resulting from the colocalization of the reporter particles of two or more different colours from the ω different colours is distinct from another secondary colour resulting from the colocalization of reporter particles of other combinations of colours from the ω different colours, wherein the presence of a secondary colour arising from the colocalization of reporter particles in an assigned spatial region is indicative of the presence of at least two different target analytes in the sample. providing the sample and a plurality of reporter particles having ω different colours to a substrate, the substrate having α assigned spatial regions; and determining, on the substrate, the presence of a colour arising from the reporter particles in each of α assigned spatial regions on the substrate, wherein each of the assigned spatial regions on the substrate is configured to immobilize a target analyte or a group of target analytes that is different from the other assigned spatial regions, wherein reporter particles of each different colour are configured to couple to a target analyte that is different from that of the reporter particles of the other different colours, and wherein α is an integer that is at least two and ω is an integer that is at least three, wherein the reporter particles are configured to give rise to a secondary colour when reporter particles of two or more different colours are colocalized in the same spatial region, wherein the secondary colour resulting from the colocalization of the reporter particles of two or more different colours from the ω different colours is distinct from another secondary colour resulting from the colocalization of reporter particles of other combinations of colours from the ω different colours, wherein the presence of a secondary colour arising from the colocalization of reporter particles in an assigned spatial region is indicative of the presence of at least two different target analytes in the sample.
A human serum albumin fragment comprising the amino acid sequence of SEQ ID NO: 81 for use in the treatment of an inflammatory condition, wherein said HSA fragment is 10-50 amino acids in length.
A manufacturing system for laminating a plurality of fiber plies comprising: a tool having a mold surface; a caul having an exterior surface portion configured to face the composite laminate on the mold surface, the exterior surface portion having an uneven texture; and a release layer arranged to act as a separator between the fiber plies and the caul. a tool having a mold surface; a caul having an exterior surface portion configured to face the composite laminate on the mold surface, the exterior surface portion having an uneven texture; and a release layer arranged to act as a separator between the fiber plies and the caul.
Cooling system, particularly for cooling an electronic apparatus, such as an avionic apparatus, the cooling system comprising at least one plate member forming a wall of a casing inside which the apparatus is intended to be accommodated in use, said at least one plate member having a first side facing in use towards the apparatus and a second side opposite to the first side, and a fluid circuit formed in said at least one plate member, characterized in that the fluid circuit comprises a first duct formed on the first side of said at least one plate member and extending along a first labyrinth path and a second duct formed on the second side of said at least one plate member and extending along a second labyrinth path, in that said at least one plate member has a first through hole and a second through hole, through which the first duct and the second duct are in fluid communication with each other, and in that the fluid circuit further comprises a porous separation element which is placed in the first through hole and through which a working fluid flows by capillarity from the second duct to the first duct, the working fluid being in vapour phase in the first duct and in liquid phase in the second duct.
Device for dispensing a liquid additive into a fuel circulation circuit for an internal combustion engine, said circuit assuring in a vehicle the circulation of fuel between the interior of a fuel tank and the engine, said device comprising: - a fuel inlet, - a fuel outlet, - an additive distribution opening which is distinct from the fuel inlet and fuel outlet, the distribution opening being defined at a first end of a distribution line, - an additive chamber in communication with the fuel circulation circuit, - a reservoir of liquid additive which allows releasing an additive into the fuel circulation circuit by means of the distribution line, characterized in that it comprises: - at least one mobile and fluidtight wall (32, 33, 34) between said additive chamber and the additive reservoir which, on the one hand, provides a fluidtight division, and on the other hand, maintains equal pressure between the additive in the additive reservoir and the fuel in the additive chamber, - a means of generating a negative pressure between the additive distribution opening and the fuel inlet or outlet, and - a distribution head that comprises the fuel inlet, the fuel outlet, the additive distribution opening, the distribution line and said means of generating a negative pressure, the additive distribution opening being arranged at said means of generating a negative pressure which is in the form of a diaphragm or venturi, and in that the additive chamber, the additive reservoir and said mobile wall (32, 33, 34) are part of a replaceable cartridge detachably mounted on the distribution head, the distribution line being provided with a second end for fluidtight connection to the additive reservoir. - a fuel inlet, - a fuel outlet, - an additive distribution opening which is distinct from the fuel inlet and fuel outlet, the distribution opening being defined at a first end of a distribution line, - an additive chamber in communication with the fuel circulation circuit, - a reservoir of liquid additive which allows releasing an additive into the fuel circulation circuit by means of the distribution line, - at least one mobile and fluidtight wall (32, 33, 34) between said additive chamber and the additive reservoir which, on the one hand, provides a fluidtight division, and on the other hand, maintains equal pressure between the additive in the additive reservoir and the fuel in the additive chamber, - a means of generating a negative pressure between the additive distribution opening and the fuel inlet or outlet, and - a distribution head that comprises the fuel inlet, the fuel outlet, the additive distribution opening, the distribution line and said means of generating a negative pressure, the additive distribution opening being arranged at said means of generating a negative pressure which is in the form of a diaphragm or venturi,
Method for operating a paper machine for producing paper, board or paperboard, comprising a conveying device, by means of which at least one fibrous material web produced from a fibrous suspension is conveyed in a conveying direction, comprising at least one drying region, in which the fibrous material web which is conveyed through the drying region is dried by means of at least one drying cylinder arranged in the drying region, a medium for drying the fibrous material web being supplied to the drying cylinder and introduced into the drying cylinder, characterized in that the medium is carried away from the drying region downstream of the drying region and is supplied as a heat source to a heat pump, by means of which the medium is heated upstream of the drying region.
Method for producing a fiber-reinforced plastics casting, comprising the following manufacturing steps: - filling a free flowing coarse-grained moulding material such as pellets for casting into an open moulding box; - inserting a textile preform in the moulding material in order to form a moulding cavity; - infiltrating the moulding material with high viscosity synthetic resin material in order to form a durable mould and curing the resin material; - infiltrating the textile preform with low viscosity synthetic resin material (6") in order to form a fiber-reinforced plastics casting; - demoulding the cured moulding material after curing of the low viscosity resin material (6") in order to separate the plastics casting. - filling a free flowing coarse-grained moulding material such as pellets for casting into an open moulding box; - inserting a textile preform in the moulding material in order to form a moulding cavity; - infiltrating the moulding material with high viscosity synthetic resin material in order to form a durable mould and curing the resin material; - infiltrating the textile preform with low viscosity synthetic resin material (6") in order to form a fiber-reinforced plastics casting; - demoulding the cured moulding material after curing of the low viscosity resin material (6") in order to separate the plastics casting.
Monolithic multiple solar cell consisting substantially of elements of the III and V main group of the periodic system, wherein the multiple solar cell comprises at least three sub-cells (12, 14, 16, 18) and is constructed on a Ge substrate, characterised in that one of the sub-cells (12, 14, 16, 18) of the multiple solar cell is from the group GaInNAs and a semiconductor mirror is arranged between two sub-cells (16, 18), wherein the semiconductor mirror is incorporated below the GaInNAs sub-cell and the semiconductor mirror comprises a plurality of layers of mutually different refraction index and/or material composition and/or thickness and wherein the thickness d of the layers of the semiconductor mirror is 10 nm ≤ d ≤ 150 nm and the semiconductor mirror consists of n layers in which 10 ≤ n ≤ 50 and the half-value width HWB of the semiconductor mirror is 50 nm ≤ HWB ≤ 150 nm, and the semiconductor mirror has a high degree of reflection in a part of the spectral absorption range of the sub-cell or sub-cells (12, 14, 16) arranged above the semiconductor mirror and a high degree of transmission in the spectral absorption range of the sub-cell or the sub-cells arranged below the semiconductor mirror.
An electronic device for performing iris authentication, comprising: an image sensor; a display; and a control unit that is configured to: display an object on the display, obtain at least a first partial region from an eye image obtained through the image sensor adjust output characteristics of the display based on a result obtained based on a size of the at least the first partial region and a size of a region required for the iris authentication, obtain at least a second partial region from an eye image obtained through the image sensor after the output characteristics of the display is adjusted, and perform the iris authentication by using an iris image included in the at least the second partial region and an object image, corresponding to the object displayed on the display, included in the at least the second partial region. an image sensor; a display; and a control unit that is configured to: display an object on the display, obtain at least a first partial region from an eye image obtained through the image sensor adjust output characteristics of the display based on a result obtained based on a size of the at least the first partial region and a size of a region required for the iris authentication, obtain at least a second partial region from an eye image obtained through the image sensor after the output characteristics of the display is adjusted, and perform the iris authentication by using an iris image included in the at least the second partial region and an object image, corresponding to the object displayed on the display, included in the at least the second partial region. display an object on the display, obtain at least a first partial region from an eye image obtained through the image sensor adjust output characteristics of the display based on a result obtained based on a size of the at least the first partial region and a size of a region required for the iris authentication, obtain at least a second partial region from an eye image obtained through the image sensor after the output characteristics of the display is adjusted, and perform the iris authentication by using an iris image included in the at least the second partial region and an object image, corresponding to the object displayed on the display, included in the at least the second partial region.
A display device, comprising: a display panel; a light guide plate configured to provide light to a rear side of the display panel; a cover bottom including a rear portion configured to cover a rear surface of the light guide plate, and a side portion bent toward the display panel from an end portion of the rear portion; and a support member coupled to the cover bottom and configured to position the light guide plate and to accommodate longitudinal expansion of the light guide plate, the support member being provided at a position adjacent to a longitudinal end portion of the light guide plate, wherein the support member includes a support groove in which the end portion of the light guide plate is seated, and a protruding end portion (210b, 210c) protruding toward the rear surface of the cover bottom and inserted into a fastening hole of the rear portion, and further comprising a top case provided outside the side portion of the cover bottom, and a panel guide provided to support the display panel, wherein the top case provided outside the side portion includes a first fixing hole, and the side portion includes a second fixing hole at a position corresponding to the first fixing hole; and a fastening member is coupled to the first fixing hole and the second fixing hole, or a fixing protrusion is provided on a side surface of the support member to be inserted into the first fixing hole and the second fixing hole. a display panel; a light guide plate configured to provide light to a rear side of the display panel; a cover bottom including a rear portion configured to cover a rear surface of the light guide plate, and a side portion bent toward the display panel from an end portion of the rear portion; and a support member coupled to the cover bottom and configured to position the light guide plate and to accommodate longitudinal expansion of the light guide plate, the support member being provided at a position adjacent to a longitudinal end portion of the light guide plate, wherein the support member includes a support groove in which the end portion of the light guide plate is seated, and a protruding end portion (210b, 210c) protruding toward the rear surface of the cover bottom and inserted into a fastening hole of the rear portion, and further comprising a top case provided outside the side portion of the cover bottom, and a panel guide provided to support the display panel, wherein the top case provided outside the side portion includes a first fixing hole, and the side portion includes a second fixing hole at a position corresponding to the first fixing hole; and a fastening member is coupled to the first fixing hole and the second fixing hole, or a fixing protrusion is provided on a side surface of the support member to be inserted into the first fixing hole and the second fixing hole.
A medical system, comprising: a shaft for insertion into an intra-body cavity of a patient; multiple ultrasound transducers, which are distributed over splines that form a basket catheter at a distal end of the shaft, and which are configured to transmit ultrasonic signals in the intra-body cavity and to receive echo signals in response to the ultrasonic signals; and a processor configured to calculate a surface of the intra-body cavity by processing the echo signals using an ellipsoidal back-projection method, which reconstructs ultrasound-wave reflecting surfaces by: providing sub-sets of scattered echo signals distributed over respective sub-sets of constructed ellipsoids; and applying a non-linear minimum operator over each of the sub-sets of distributed echo signals to generate a respective minimum value for each sub-set. a shaft for insertion into an intra-body cavity of a patient; multiple ultrasound transducers, which are distributed over splines that form a basket catheter at a distal end of the shaft, and which are configured to transmit ultrasonic signals in the intra-body cavity and to receive echo signals in response to the ultrasonic signals; and a processor configured to calculate a surface of the intra-body cavity by processing the echo signals using an ellipsoidal back-projection method, which reconstructs ultrasound-wave reflecting surfaces by: providing sub-sets of scattered echo signals distributed over respective sub-sets of constructed ellipsoids; and applying a non-linear minimum operator over each of the sub-sets of distributed echo signals to generate a respective minimum value for each sub-set. providing sub-sets of scattered echo signals distributed over respective sub-sets of constructed ellipsoids; and applying a non-linear minimum operator over each of the sub-sets of distributed echo signals to generate a respective minimum value for each sub-set.