mhurhangee/ep-ind-claims huggingface dataset:
A device for treating textile substrates with a liquor, whereby the device has a process chamber for receiving the textile substrate to be treated during the treatment and a liquor collecting container assigned to the process chamber, a horizontally aligned centrifuge shaft being arranged inside the process chamber, whereby the centrifuge shaft has at least one horizontally extending central bore which is connected to a plurality of liquor outlet openings arranged over the circumference of the centrifuge shaft, whereby to the centrifuge shaft being assigned a rotary drive at its one end and a bearing block at its other end, whereby to the centrifuge shaft a liquor feed and to the process chamber a liquor discharge, are assigned and the liquor collection container is positioned between the liquor feed and the liquor discharge, and whereby the textile substrate to be treated is non-rotatably held during the treatment by the horizontally aligned centrifuge shaft, and the textile substrate to be treated is in the form of a yarn bobbin wound onto a conical or cylindrical tube or in the form of a fabric web wound in the wide state onto a fabric beam, characterized in that a) the process chamber is formed in two parts, b) whereby at least one part of the process chamber being removable for arranging the textile substrate to be treated within the process chamber and for removing the treated textile substrate from the process chamber, c) the removable part of the process chamber is connected to the bearing block and d) the bearing block is movable between a first position, in which the removable part closes the process chamber, and a second position, in which the removable part permits the arrangement of the textile substrate to be treated in the process chamber. a) the process chamber is formed in two parts, b) whereby at least one part of the process chamber being removable for arranging the textile substrate to be treated within the process chamber and for removing the treated textile substrate from the process chamber, c) the removable part of the process chamber is connected to the bearing block and d) the bearing block is movable between a first position, in which the removable part closes the process chamber, and a second position, in which the removable part permits the arrangement of the textile substrate to be treated in the process chamber.
A device for detecting the state of an injector for injecting fuel, the injector comprising: an injector housing, a movable nozzle needle which is arranged in the injector housing and has a nozzle needle tip, and a nozzle needle seat for receiving the nozzle needle tip, wherein a contact pairing of nozzle needle and nozzle needle seat constitutes a mechanical switch which on contact of the nozzle needle tip with the nozzle needle seat assumes a closed state and on interruption of the contact assumes an open state, the injector is provided with an input line and an output line for actuating a movement of the nozzle needle, and the switch includes a first terminal and a second terminal, characterized in that the first terminal of the switch is connected to the input line, the second terminal of the switch is connected to the injector housing, and the device is designed to apply a diagnostic voltage and/or a diagnostic current (I diag) to the input line leading into the injector housing, which is applied independently of an actuation current/actuation voltage for the injector, and to detect a voltage profile at the input line and/or detect a differential current between the input line and the output line. an injector housing, a movable nozzle needle which is arranged in the injector housing and has a nozzle needle tip, and a nozzle needle seat for receiving the nozzle needle tip, wherein a contact pairing of nozzle needle and nozzle needle seat constitutes a mechanical switch which on contact of the nozzle needle tip with the nozzle needle seat assumes a closed state and on interruption of the contact assumes an open state, the injector is provided with an input line and an output line for actuating a movement of the nozzle needle, and the switch includes a first terminal and a second terminal, characterized in that the first terminal of the switch is connected to the input line, the second terminal of the switch is connected to the injector housing, and the device is designed to apply a diagnostic voltage and/or a diagnostic current (I diag) to the input line leading into the injector housing, which is applied independently of an actuation current/actuation voltage for the injector, and to detect a voltage profile at the input line and/or detect a differential current between the input line and the output line. to apply a diagnostic voltage and/or a diagnostic current (I diag) to the input line leading into the injector housing, which is applied independently of an actuation current/actuation voltage for the injector, and to detect a voltage profile at the input line and/or detect a differential current between the input line and the output line.
A scanner for a microscope, endoscope or endomicroscope, the scanner comprising: a scanning mechanism (121, 122, 124) comprising a light transmitter and arranged to move the light transmitter to perform a scan; a lens system arranged to optically couple the light transmitter to a target during a scan; a first housing which houses at least a first portion of the lens system; and a second housing which houses at least the scanning mechanism (121, 122, 124); characterized by a bendable joint joining the first and second housings (140, 120) such that in a scanning configuration the bendable joint joins the first and second housings (140, 120) so that optical elements in the first and second housings (140, 120) are aligned at a working separation, the bendable joint arranged to bend in response to insertion forces applied to the scanner (105; 205) during insertion of the scanner (105; 205) and revert to the scanning configuration in the absence of insertion forces. a scanning mechanism (121, 122, 124) comprising a light transmitter and arranged to move the light transmitter to perform a scan; a lens system arranged to optically couple the light transmitter to a target during a scan; a first housing which houses at least a first portion of the lens system; and a second housing which houses at least the scanning mechanism (121, 122, 124);
An endoluminal prosthesis comprising: a scaffold having a tubular body comprising a plurality of circumferential rings patterned from a non- degradable material, said scaffold being configured to expand from a crimped configuration to an expanded configuration; wherein at least some of the circumferential rings comprise struts (50/81/82/94a) joined by crowns; wherein at least some circumferential rings are axially joined to adjacent circumferential rings; wherein at least some of the circumferential rings have at least one separation region (80/87/95), said separation region (80/87/95) comprising a lock and key formed as a part of the strut (50/81/82/94a), wherein the separation region is immobilized during expansion but the lock and key are configured to separate after expansion in a physiologic environment to form at least one discontinuity in said circumferential rings. a scaffold having a tubular body comprising a plurality of circumferential rings patterned from a non- degradable material, said scaffold being configured to expand from a crimped configuration to an expanded configuration; wherein at least some of the circumferential rings comprise struts (50/81/82/94a) joined by crowns; wherein at least some circumferential rings are axially joined to adjacent circumferential rings; wherein at least some of the circumferential rings have at least one separation region (80/87/95), said separation region (80/87/95) comprising a lock and key formed as a part of the strut (50/81/82/94a), wherein the separation region is immobilized during expansion but the lock and key are configured to separate after expansion in a physiologic environment to form at least one discontinuity in said circumferential rings.
Motion simulator for simulating a motion of a vehicle, particularly an aircraft, comprising: a) a multi-axis serial robot comprising a rotatable base axis and a tool center point, and b) a seat for an operator, wherein the seat is attached to the multi-axis serial robot, so that the seat can be moved in space by the multi-axis serial robot for simulation of a real movement, c) wherein the motion simulator is adapted to simulate a long-lasting acceleration or deceleration by generating a centrifugal force acting on the operator, characterized in that d) the seat is attached to the tool center point of the multi-axis serial robot by an additional seat axis (11, 12, 14-16), wherein the seat axis (11, 12, 14-16) allows a movement of the seat relative to the tool center point of the multi-axis serial robot, and e) the seat axis (11, 12, 14-16) allows at least a rotation of the seat in the sagittal plane of the operator in the seat, and f) the seat axis (11, 12, 14-16) allows a rotary movement of at least 90° in the sagittal plane of the operator, in the seat, and g) the seat axis (11, 12, 14-16) comprises a curved guide rail and a carriage which is movable along the guide rail, and h) the carriage is attached to the tool center point of the multi-axis serial robot and the guide rail is attached to the seat, so that the seat is movable relative to the tool center point of the multi-axis serial robot. a) a multi-axis serial robot comprising a rotatable base axis and a tool center point, and b) a seat for an operator, wherein the seat is attached to the multi-axis serial robot, so that the seat can be moved in space by the multi-axis serial robot for simulation of a real movement, c) wherein the motion simulator is adapted to simulate a long-lasting acceleration or deceleration by generating a centrifugal force acting on the operator, characterized in that d) the seat is attached to the tool center point of the multi-axis serial robot by an additional seat axis (11, 12, 14-16), wherein the seat axis (11, 12, 14-16) allows a movement of the seat relative to the tool center point of the multi-axis serial robot, and e) the seat axis (11, 12, 14-16) allows at least a rotation of the seat in the sagittal plane of the operator in the seat, and f) the seat axis (11, 12, 14-16) allows a rotary movement of at least 90° in the sagittal plane of the operator, in the seat, and g) the seat axis (11, 12, 14-16) comprises a curved guide rail and a carriage which is movable along the guide rail, and h) the carriage is attached to the tool center point of the multi-axis serial robot and the guide rail is attached to the seat, so that the seat is movable relative to the tool center point of the multi-axis serial robot.
A compound represented by structural formula: wherein: R 1 and R 2 independently are hydrogen, phenyl or an optionally benzofused five- or six-membered heterocycle, wherein the phenyl or the optionally benzofused five- or six-membered heterocycle is optionally substituted with -CH 2 OH, -CHO, -OCH 3, halogen, -OH, -CH 3, R 3 is C 3 linear or branched alkyl or C 3 linear or branched alkoxy; and R 4 is hydrogen, R 1 and R 2 independently are hydrogen, phenyl or an optionally benzofused five- or six-membered heterocycle, wherein the phenyl or the optionally benzofused five- or six-membered heterocycle is optionally substituted with -CH 2 OH, -CHO, -OCH 3, halogen, -OH, -CH 3, R 3 is C 3 linear or branched alkyl or C 3 linear or branched alkoxy; and R 4 is hydrogen,
An electrical connector comprising: an interface housing adapted to be inserted into an associated receiving female connector on an associated electronic device; wherein the housing includes at least one wall that defines a port having a predetermined configuration and the port is configured to be insertably received by a universal serial bus connector; a first contact support member housed at least partially within the interface housing, wherein the first contact support member extends forwardly toward the port; a plurality of first contacts mounted on the first contact support member, wherein each of the plurality of first contacts is configured to electrically connect with the associated connector and a second housing coupled to the interface housing, wherein the second housing includes at least one compact coaxial connector that is adapted to be inserted into an associated receiving female coaxial connector to provide one or more external antennas to support one or more modes of communication on the associated electronic device. an interface housing adapted to be inserted into an associated receiving female connector on an associated electronic device; wherein the housing includes at least one wall that defines a port having a predetermined configuration and the port is configured to be insertably received by a universal serial bus connector; a first contact support member housed at least partially within the interface housing, wherein the first contact support member extends forwardly toward the port; a plurality of first contacts mounted on the first contact support member, wherein each of the plurality of first contacts is configured to electrically connect with the associated connector and a second housing coupled to the interface housing, wherein the second housing includes at least one compact coaxial connector that is adapted to be inserted into an associated receiving female coaxial connector to provide one or more external antennas to support one or more modes of communication on the associated electronic device.
Electricity generating electrochemical device of the solid-oxide fuel-cell type, characterised in that it comprises a planar assembly made of at least one electrochemical cell between first and second gas diffusion plates (12, 13) made of a ceramic material with a coefficient of expansion between 8 x 10 -6 K -1 and 14 x 10 -6 K -1 and in which equidistant holes (14, 15) are formed, first and second current collection metal grids (16, 17), each connected to a conducting wire (18, 19) allowing current to flow outside the device, being located on each side of said at least one electrochemical cell between this cell and each of the first and second gas diffusion plates, and clamping means (20, 21) mechanically holding this planar assembly.
A radiation shield, in particular for shielding main coils of a magnetic resonance imaging system, whereby the radiation shield comprises a cavity for housing at least one main coil, whereby the cavity is formed between an inner cylindrical wall, an outer cylindrical wall, which are arranged essentially concentrically to each other, and two ring-shaped base walls, which interconnect the inner cylindrical wall and the outer cylindrical wall, wherein at least one out of the inner cylindrical wall, the outer cylindrical wall, and optionally also the two ring-shaped base walls is/are provided at least partially with an inner layer, which faces the cavity, and an outer layer, wherein the inner layer is a layer comprising carbon fiber reinforced plastic, the outer layer comprising a metal, which is paramagnetic or diamagnetic and the fibers of the carbon fiber reinforced plastic of the inner layer provided on at least one out of the inner cylindrical wall, the outer cylindrical wall are commonly aligned in an axial direction of the respective inner cylindrical wall and the outer cylindrical wall. the radiation shield comprises a cavity for housing at least one main coil, whereby the cavity is formed between an inner cylindrical wall, an outer cylindrical wall, which are arranged essentially concentrically to each other, and two ring-shaped base walls, which interconnect the inner cylindrical wall and the outer cylindrical wall, wherein at least one out of the inner cylindrical wall, the outer cylindrical wall, and optionally also the two ring-shaped base walls is/are provided at least partially with an inner layer, which faces the cavity, and an outer layer, wherein the inner layer is a layer comprising carbon fiber reinforced plastic, the outer layer comprising a metal, which is paramagnetic or diamagnetic and the fibers of the carbon fiber reinforced plastic of the inner layer provided on at least one out of the inner cylindrical wall, the outer cylindrical wall are commonly aligned in an axial direction of the respective inner cylindrical wall and the outer cylindrical wall.
A stationary exercise equipment, comprising: a supporting structure; a force-resisting device situated inside the supporting structure; a main shaft penetrating through a main sprocket, two ends of the main shaft being sleeved with a first sprocket, via an unidirectional clutch, and a second sprocket, via another unidirectional clutch, respectively;a plurality of front pulleys and a plurality of rear pulleys correspondingly connected thereto; two user supports, wherein each user support is coupled to a chain (22,23), wherein the chains engage the first sprocket and the second sprocket, respectively, to drive the main sprocket, wherein each of the chains is coupled to a flexible cable which travels around the rear pulleys and to another flexible cable which travels around the front pulleys; characterized in that the stationary exercise equipment further comprises a hub mounted continuously variable transmission installed on the force-resisting device, wherein the force-resisting device is a fluid displacement turbine; and an engagement chain is provided for engaging the main sprocket and the hub mounted continuously variable transmission, so that the engagement chain engaging the main sprocket and the hub mounted continuously variable transmission can be driven to bring the force-resisting device into rotation, and a movable user interface installed on the supporting structure for controlling a transmission ratio. a supporting structure; a force-resisting device situated inside the supporting structure; a main shaft penetrating through a main sprocket, two ends of the main shaft being sleeved with a first sprocket, via an unidirectional clutch, and a second sprocket, via another unidirectional clutch, respectively;a plurality of front pulleys and a plurality of rear pulleys correspondingly connected thereto; two user supports, wherein each user support is coupled to a chain (22,23), wherein the chains engage the first sprocket and the second sprocket, respectively, to drive the main sprocket, wherein each of the chains is coupled to a flexible cable which travels around the rear pulleys and to another flexible cable which travels around the front pulleys; characterized in that the stationary exercise equipment further comprises a hub mounted continuously variable transmission installed on the force-resisting device, wherein the force-resisting device is a fluid displacement turbine; and an engagement chain is provided for engaging the main sprocket and the hub mounted continuously variable transmission, so that the engagement chain engaging the main sprocket and the hub mounted continuously variable transmission can be driven to bring the force-resisting device into rotation, and a movable user interface installed on the supporting structure for controlling a transmission ratio.
A method of fabricating a microelectronic unit, the method comprising: providing a wafer including a semiconductor chip having a front surface, a rear surface remote from the front surface, semiconductive material exposed at the rear surface, a conductive layer exposed at the front surface, a plurality of first conductive contacts exposed at the front surface, at least some of the first conductive contacts being insulated from the conductive layer; electrophoretically depositing an insulative layer (1304, 1402) onto the exposed conductive layer and the exposed semiconductive material; forming a plurality of rear conductive traces overlying the insulative layer above the rear surface of the semiconductor chip; forming a plurality of front conductive traces on the insulative layer overlying the front surface of the semiconductor chip in conductive communication with the first conductive contacts; electrophoretically depositing a further insulative layer onto at least a portion of the front conductive traces; forming a plurality of further conductive traces on at least part of the further insulative layer overlying the front surface of the semiconductor chip in conductive communication with the front conductive traces; and forming a plurality of edge conductive traces that extend between the front and the rear conductive traces, the edge conductive traces being formed atop edge surfaces that extend between the front surface and the rear surface of the semiconductor chip thereby conductively connecting one or more of the front conductive traces and the further conductive traces to the rear conductive traces. providing a wafer including a semiconductor chip having a front surface, a rear surface remote from the front surface, semiconductive material exposed at the rear surface, a conductive layer exposed at the front surface, a plurality of first conductive contacts exposed at the front surface, at least some of the first conductive contacts being insulated from the conductive layer; electrophoretically depositing an insulative layer (1304, 1402) onto the exposed conductive layer and the exposed semiconductive material; forming a plurality of rear conductive traces overlying the insulative layer above the rear surface of the semiconductor chip; forming a plurality of front conductive traces on the insulative layer overlying the front surface of the semiconductor chip in conductive communication with the first conductive contacts; electrophoretically depositing a further insulative layer onto at least a portion of the front conductive traces; forming a plurality of further conductive traces on at least part of the further insulative layer overlying the front surface of the semiconductor chip in conductive communication with the front conductive traces; and forming a plurality of edge conductive traces that extend between the front and the rear conductive traces, the edge conductive traces being formed atop edge surfaces that extend between the front surface and the rear surface of the semiconductor chip thereby conductively connecting one or more of the front conductive traces and the further conductive traces to the rear conductive traces.
A positive active material satisfying the chemical formula of Na 0.67 Mn x A y B z O 2±δ, in which A is selected from one or more of Co, Ni and Cr, B is selected from one or more of Mg, Al, Ca, Ti, Cu, Zn and Ba, 0.6 <x <1, 0 <y <0.1, 0.6 <x + y <0.8, z> 0, x + y + z =1, 0 ≤ δ ≤ 0.1, and 3.33 + 2 δ − y − z 4 < x < 3.33 + 2 δ − y − z 3.
Method for manufacturing a stack of magnetic sheets for an electric machine, in which multiple magnetic sheets are stacked which are manufactured according to a method in which a nonmagnetic sheet which is flat in extension is used, which is manufactured as a punched part and/or a cut part and has recessed regions along the flat extension, wherein these regions are filled by means of additive manufacturing of a soft-magnetic material fixed to the sheet in a material-bonded manner, wherein the magnetic sheets are tempered in order to adjust grain growth and/or interdiffusion at material-bonded connection points.
A crown cap in its state prior to its closure to seal a mouth of a crown finish or threaded crown finish glass bottle, the crown cap comprising a laminar plate with an inner face and an outer face, formed by a circular wall, a curved wall perimetrical to the circular wall and having a radius of curvature from 1.5 mm to 1.9 mm, and a closure skirt that descends radially downward and outward from the curved wall and formed by a plurality of interleaved projections and depressions; the crown cap is characterized in that the curved wall has an arc less than 86°.