mhurhangee/ep-ind-claims huggingface dataset:
Method of analysing by capillary electrophoresis one or more glycated hemoglobin(s) having at least one beta globin chain having a glucose residue bound to the N-terminal amino acid, said one or more glycated hemoglobin(s) being contained in a biological sample comprising hemoglobins, said method comprising the following steps: a.introducing into an electrophoresis capillary a buffer composition and the biological sample; the buffer composition comprising at least one compound which specifically complexes the glucose residues bound to an amino acid located in the N-terminal position in the glycated haemoglobin(s) of the biological sample and provides this/these glycated haemoglobin(s) with a plurality of negative electric charges at alkaline pH, said compound comprising two or more functional groups: i. at least one of these functional groups specifically complexing one or more glucose residue(s), thereby providing a negative electrical charge per complexed glucose residue, and ii. the other, one of the other or other functional group(s) not complexing said glucose residue(s), conferring one or more negative electrical charge(s) at alkaline pH on said glycated haemoglobin(s), b. separating the components of the biological sample by capillary electrophoresis; and c. detecting one or more haemoglobin(s) present in the biological sample and generating an electropherogram from the detection signal, which is proportional to the amount of haemoglobin(s) detected. a.introducing into an electrophoresis capillary a buffer composition and the biological sample; the buffer composition comprising at least one compound which specifically complexes the glucose residues bound to an amino acid located in the N-terminal position in the glycated haemoglobin(s) of the biological sample and provides this/these glycated haemoglobin(s) with a plurality of negative electric charges at alkaline pH, said compound comprising two or more functional groups: i. at least one of these functional groups specifically complexing one or more glucose residue(s), thereby providing a negative electrical charge per complexed glucose residue, and ii. the other, one of the other or other functional group(s) not complexing said glucose residue(s), conferring one or more negative electrical charge(s) at alkaline pH on said glycated haemoglobin(s), i. at least one of these functional groups specifically complexing one or more glucose residue(s), thereby providing a negative electrical charge per complexed glucose residue, and ii. the other, one of the other or other functional group(s) not complexing said glucose residue(s), conferring one or more negative electrical charge(s) at alkaline pH on said glycated haemoglobin(s), b. separating the components of the biological sample by capillary electrophoresis; and c. detecting one or more haemoglobin(s) present in the biological sample and generating an electropherogram from the detection signal, which is proportional to the amount of haemoglobin(s) detected.
Plug part for an optical plug-in connection, with a plug pin, in which an optical waveguide stub is held, said optical waveguide stub extending over a longitudinal mid-axis, and with a bush-like pin holder, comprising a pin receiving section, in which the plug pin is held, and an optical waveguide receiving section, the optical waveguide receiving section having at least two casing parts (8, 8') which can be connected to one another, at least one casing part (8, 8') being fastened or being able to be fastened on the pin receiving section using a hinge (9, 9') in such a way that the casing part can be pivoted through a predetermined pivot angle between an open position and a closed position and the optical waveguide stub can be welded to an in particular cable-side optical waveguide end, that end of the optical waveguide stub which is intended to be welded being located in the region of the casing parts (8, 8'), characterized in that the end of an optical waveguide can be fixed to the casing parts of the optical waveguide receiving section in a manner resistant to high tensile stress, and in that at least one of the casing parts (8, 8') has at least one adhesive layer (25, 25'), which is preferably applied in the factory, for connecting the at least two casing parts (8, 8').
A V-type engine having an air intake path in combination with a fuel feed system disposed in a V-form bank space, the fuel feed system having injectors for jetting therethrough a fuel into the air intake path, and a delivery pipe for feeding therethrough the fuel to the injectors, and the delivery pipe being fixed to, and thereby supported by, the V-type engine while allowing the top portions of the injectors to be fitted into the delivery pipe, wherein the delivery pipe has no attachment unit for assisting attachment to the peripheral components other than the injectors.
A device for attaching the front of a front fender to the structure of a vehicle, in particular an automobile, including a linking part connected on the one hand to the structure of the vehicle and on the other hand to the front of the front fender of the vehicle, and which has at least one weakening area enabling the linking part to be deformable for enabling a controlled movement of the front of the front fender relative to the structure of the vehicle in the event of an impact, the linking part being constituted by a vertically positioned plate, fixed to the structure of the vehicle at the level of its two lateral ends, characterized in that said plate is bent about a vertical axis so as to present a first portion extending substantially perpendicularly to the direction of advancing of the vehicle, and a second portion extending substantially perpendicularly to the transverse direction of the vehicle.
Apparatus for handling fluid within an at least partially electrically powered vehicle, comprising: a valve device, comprising a valve housing, wherein the valve housing comprises at least eight radially arranged port openings for fluid to flow in or out, a valve body, which is arranged within the valve housing and is arranged in a rotatable manner about an axis of rotation R, wherein the valve body comprises at least four connecting channels for fluidly connecting two port openings respectively to one another, characterized in that a further connection opening is arranged between two port openings which are respectively fluidly connected to each other. a valve device, comprising a valve housing, wherein the valve housing comprises at least eight radially arranged port openings for fluid to flow in or out, a valve body, which is arranged within the valve housing and is arranged in a rotatable manner about an axis of rotation R, wherein the valve body comprises at least four connecting channels for fluidly connecting two port openings respectively to one another, characterized in that a further connection opening is arranged between two port openings which are respectively fluidly connected to each other.
An automatic treatment planning system, comprising: a user interface; and a treatment planning module configured to automatically generate one or more treatment plan candidates based on a weighted combination of a first set of objectives derived for clinical data of a first data source and a second set of objectives derived for clinical data of a second, different data source received via the user interface; characterized in that: the first data source includes a prioritized set of clinical goals, and the second data source includes knowledge-based information. a user interface; and a treatment planning module configured to automatically generate one or more treatment plan candidates based on a weighted combination of a first set of objectives derived for clinical data of a first data source and a second set of objectives derived for clinical data of a second, different data source received via the user interface; characterized in that: the first data source includes a prioritized set of clinical goals, and the second data source includes knowledge-based information.
A turbine system, comprising: a gas turbine engine comprising an air intake; and a system comprising a foreign object damage screen configured to be disposed upstream of the air intake of the gas turbine engine and to keep debris from entering the air intake, wherein the FOD screen is configured to extend across a fluid flow path extending through the air intake into the gas turbine engine, and wherein the FOD screen comprises a flexible, woven fabric made of a non-metal material and configured to absorb and dissipate energy from the debris, and the flexible, woven fabric comprises a tensile strength ranging 2700 megapascals (MPa) and 3700 MPa; a housing; and an inlet silencer disposed within the housing, wherein the FOD screen is coupled to a wall of the housing at an axial location relative to a longitudinal axis of the housing and the gas turbine engine, and downstream of the inlet silencer and upstream of the air intake, wherein the FOD screen is coupled to the wall via an attachment mechanism, wherein the attachment mechanism includes an annular retaining ring and a plurality of fasteners; and wherein the flexible, woven fabric of the FOD screen is configured, when the FOD screen is disposed upstream of the air intake of the gas turbine engine having a longitudinal axis, to move axially along the longitudinal axis relative to an axial location of coupling of the FOD screen to the wall located upstream of the gas turbine engine; wherein the system is disposed upstream of the air intake. a gas turbine engine comprising an air intake; and a system comprising a foreign object damage screen configured to be disposed upstream of the air intake of the gas turbine engine and to keep debris from entering the air intake, wherein the FOD screen is configured to extend across a fluid flow path extending through the air intake into the gas turbine engine, and wherein the FOD screen comprises a flexible, woven fabric made of a non-metal material and configured to absorb and dissipate energy from the debris, and the flexible, woven fabric comprises a tensile strength ranging 2700 megapascals (MPa) and 3700 MPa; a housing; and an inlet silencer disposed within the housing, wherein the FOD screen is coupled to a wall of the housing at an axial location relative to a longitudinal axis of the housing and the gas turbine engine, and downstream of the inlet silencer and upstream of the air intake, wherein the FOD screen is coupled to the wall via an attachment mechanism, wherein the attachment mechanism includes an annular retaining ring and a plurality of fasteners; and wherein the flexible, woven fabric of the FOD screen is configured, when the FOD screen is disposed upstream of the air intake of the gas turbine engine having a longitudinal axis, to move axially along the longitudinal axis relative to an axial location of coupling of the FOD screen to the wall located upstream of the gas turbine engine; wherein the system is disposed upstream of the air intake.
A machine tool comprising: a spindle headstock movable in an X axis direction; a tool post that includes a movement axis in the X axis direction and a movement axis (Ys) in a direction which is inclined relative to the X axis and intersects with the X axis without being orthogonal to the X axis, and is movable relative to the spindle headstock; and a controller, wherein the tool post is movable in a Y axis direction orthogonal to the X axis by combining movements along the two movement axes (X2, Ys), characterized in that the controller performs superposition control of movement of the tool post and movement of the spindle headstock, the controller includes a regulator that regulates movement of the spindle headstock in the superposition control, which corresponds to the movement of the tool post in the X axis direction associated with movement of the tool post in the Y axis direction, and wherein when the tool post is moved in the Y axis direction, the controller sets respective moving velocities along both of the movement axes (X2, Ys) to cancel the movement in the X axis direction by the movement in a same time. a spindle headstock movable in an X axis direction; a tool post that includes a movement axis in the X axis direction and a movement axis (Ys) in a direction which is inclined relative to the X axis and intersects with the X axis without being orthogonal to the X axis, and is movable relative to the spindle headstock; and a controller, wherein the tool post is movable in a Y axis direction orthogonal to the X axis by combining movements along the two movement axes (X2, Ys), characterized in that the controller performs superposition control of movement of the tool post and movement of the spindle headstock, the controller includes a regulator that regulates movement of the spindle headstock in the superposition control, which corresponds to the movement of the tool post in the X axis direction associated with movement of the tool post in the Y axis direction, and wherein when the tool post is moved in the Y axis direction, the controller sets respective moving velocities along both of the movement axes (X2, Ys) to cancel the movement in the X axis direction by the movement in a same time.
A recording apparatus, comprising: a recording head for discharging ink onto a recording medium; a heater for drying the ink discharged on the recording medium by the recording head and a medium supporting portion, characterized in that the heater is adapted to dry the ink discharged on the recording medium without making contact with the recording medium; that the medium supporting portion is provided with an opening portion which allows vapor that evaporates from the ink due to the heater to pass therethrough; and that the recording apparatus additionally comprises a condensation guide portion for causing the vapor that passes through the opening portion to condense. a recording head for discharging ink onto a recording medium; a heater for drying the ink discharged on the recording medium by the recording head and a medium supporting portion, characterized in that the heater is adapted to dry the ink discharged on the recording medium without making contact with the recording medium; that the medium supporting portion is provided with an opening portion which allows vapor that evaporates from the ink due to the heater to pass therethrough; and that the recording apparatus additionally comprises a condensation guide portion for causing the vapor that passes through the opening portion to condense.
A keyboard assembly, comprising: a substrate; and a key assembly comprising: a key cap; a movement mechanism moveably coupling the key cap to the substrate; and a guard structure extending from the key cap to the substrate that funnels contaminants away from the movement mechanism; a vent defined by the guard structure and configured with sufficiently small dimensions that, upon compression of the guard structure, gas can be forced through the vent without easily allowing liquids, dust, or other particles to enter an internal area of the key assembly. a substrate; and a key assembly comprising: a key cap; a movement mechanism moveably coupling the key cap to the substrate; and a guard structure extending from the key cap to the substrate that funnels contaminants away from the movement mechanism; a vent defined by the guard structure and configured with sufficiently small dimensions that, upon compression of the guard structure, gas can be forced through the vent without easily allowing liquids, dust, or other particles to enter an internal area of the key assembly. a key cap; a movement mechanism moveably coupling the key cap to the substrate; and a guard structure extending from the key cap to the substrate that funnels contaminants away from the movement mechanism; a vent defined by the guard structure and configured with sufficiently small dimensions that, upon compression of the guard structure, gas can be forced through the vent without easily allowing liquids, dust, or other particles to enter an internal area of the key assembly.
A print head for printing a three-dimensional structure from at least one first material, at least one hydrogel shell material and at least one hydrogel core material, the print head comprising: an orifice for dispensing the materials; at least three inlets for receiving materials in fluid communication with respective microfluidic channels arranged within the printhead to produce a coaxial hydrogel fiber comprising a hydrogel core material and hydrogel shell material, each microfluidic channel comprising a fluid inlet, the microfluidic channels comprising two first channels for receiving and directing the at least one first material, two second channels for receiving and directing the at least one hydrogel shell material, and a third channel, which is a focussing channel, joining together with each of the first channels at a first intersection point to form a dispensing channel which extends to the orifice, the two second channels intersecting at a second intersection point and joining together to form the third channel which extends to the first intersection point; the microfluidic channels further comprising a fourth channel for receiving and directing the at least one hydrogel core material, the fourth channel joining together with the two second channels and the third channel at the second intersection point, wherein at the second intersection point the shell material focusses the core material coaxially such that the shell material forms a sheath around the core material. an orifice for dispensing the materials; at least three inlets for receiving materials in fluid communication with respective microfluidic channels arranged within the printhead to produce a coaxial hydrogel fiber comprising a hydrogel core material and hydrogel shell material, each microfluidic channel comprising a fluid inlet, the microfluidic channels comprising two first channels for receiving and directing the at least one first material, two second channels for receiving and directing the at least one hydrogel shell material, and a third channel, which is a focussing channel, joining together with each of the first channels at a first intersection point to form a dispensing channel which extends to the orifice, the two second channels intersecting at a second intersection point and joining together to form the third channel which extends to the first intersection point; the microfluidic channels further comprising a fourth channel for receiving and directing the at least one hydrogel core material, the fourth channel joining together with the two second channels and the third channel at the second intersection point, wherein at the second intersection point the shell material focusses the core material coaxially such that the shell material forms a sheath around the core material.
Self-destruction device for ammunition with a nose and/or base fuse, having a lockable body and having a first spring, which interacts with said body, having a locking mechanism, having a spring-supported mass and having a second spring, which interacts with said mass, wherein the self-destruction device is configured such that, a. when the ammunition is accelerating, the body is accelerated downwards counter to the direction of acceleration, in that the first spring is subjected to stressing and, by virtue of the ammunition rotating, the locking mechanism is pushed into the spring-supported mass counter to the force of the second spring, and therefore the body is locked, and, b. when the ammunition drops below a certain rotational speed, unlocking takes place such that, c. when the ammunition drops below the certain rotational speed, the force of the second spring is greater than the rotational force acting on the locking mechanism and the mass, as a result of which d. the second spring moves the mass and the locking mechanism into the original position, and wherein, e. by virtue of the force of the first spring, the body moves a rotor with a detonator or a stab pin in the direction of the initial acceleration of the ammunition and ignites the detonator or a fuse. a. when the ammunition is accelerating, the body is accelerated downwards counter to the direction of acceleration, in that the first spring is subjected to stressing and, by virtue of the ammunition rotating, the locking mechanism is pushed into the spring-supported mass counter to the force of the second spring, and therefore the body is locked, and, b. when the ammunition drops below a certain rotational speed, unlocking takes place such that, c. when the ammunition drops below the certain rotational speed, the force of the second spring is greater than the rotational force acting on the locking mechanism and the mass, as a result of which d. the second spring moves the mass and the locking mechanism into the original position, and wherein, e. by virtue of the force of the first spring, the body moves a rotor with a detonator or a stab pin in the direction of the initial acceleration of the ammunition and ignites the detonator or a fuse.
A user equipment comprising: means for performing the following processes: a) setting the number of times of preamble transmission to 1; b) transmitting a preamble using a random access channel; c) receiving a Random Access Response; d) judging whether the Random Access Response contains an acknowledgement signal corresponding to the transmitted preamble or not, and, in a case where the Random Access Response does not contain the acknowledgement signal corresponding to the transmitted preamble, incrementing the number of times of preamble transmission by 1; e) repeating b) through d) until the Random Access Response contains the acknowledgement signal corresponding to the transmitted preamble; characterized by: f) receiving a report request, which is dedicated to the user equipment and which is received after receiving the Random Access Response which contains the acknowledgement signal corresponding to the transmitted preamble, for reporting information indicating the number of times of preamble transmission; and g) reporting by the user equipment, the information upon reception of the report request, wherein the information is reported using an uplink channel. a) setting the number of times of preamble transmission to 1; b) transmitting a preamble using a random access channel; c) receiving a Random Access Response; d) judging whether the Random Access Response contains an acknowledgement signal corresponding to the transmitted preamble or not, and, in a case where the Random Access Response does not contain the acknowledgement signal corresponding to the transmitted preamble, incrementing the number of times of preamble transmission by 1; e) repeating b) through d) until the Random Access Response contains the acknowledgement signal corresponding to the transmitted preamble; f) receiving a report request, which is dedicated to the user equipment and which is received after receiving the Random Access Response which contains the acknowledgement signal corresponding to the transmitted preamble, for reporting information indicating the number of times of preamble transmission; and g) reporting by the user equipment, the information upon reception of the report request,