mhurhangee/ep-ind-claims huggingface dataset:
A subassembly for a vehicle, the subassembly comprising: a chassis (50,50') assembly; a front body module (10, 10') attachable to a forward portion of the chassis (50, 50') assembly, the front body module (10, 10') including a side portion (20, 20') thereof which extends outwardly beyond the chassis (50, 50') in a transverse direction; and characterised in that a stay (40, 40') is provided which extends transversely outwardly from the chassis assembly (50, 50') to support the side portion (20, 20'); and wherein one of the front body module (10, 10') or the stay (40, 40') is provided with a connecting member (30, 30') which extends in a substantially longitudinal direction and the other of the stay (40, 40') or front body module (10, 10') is provided with corresponding longitudinally aligned aperture (42, 42') for receiving the connecting member (30, 30') in use to support the side portion (20, 20') of the front body module (10, 10'). a chassis (50,50') assembly; a front body module (10, 10') attachable to a forward portion of the chassis (50, 50') assembly, the front body module (10, 10') including a side portion (20, 20') thereof which extends outwardly beyond the chassis (50, 50') in a transverse direction; and characterised in that a stay (40, 40') is provided which extends transversely outwardly from the chassis assembly (50, 50') to support the side portion (20, 20'); and wherein one of the front body module (10, 10') or the stay (40, 40') is provided with a connecting member (30, 30') which extends in a substantially longitudinal direction and the other of the stay (40, 40') or front body module (10, 10') is provided with corresponding longitudinally aligned aperture (42, 42') for receiving the connecting member (30, 30') in use to support the side portion (20, 20') of the front body module (10, 10').
Use of p-tert-butylstyrene comonomer for increasing the glass transition temperature (Tg) of expanded vinyl aromatic polymer, wherein said polymer i) is prepared from styrene monomer and ii) contains one or more athermanous additives. i) is prepared from styrene monomer and ii) contains one or more athermanous additives.
Air conducting device intended to be mounted on an HVAC housing, comprising a radiator and lateral pipes (3, 4) for a motor vehicle, comprising a cover comprising a first volume (11, 11') collecting hot air from an air outlet of the HVAC housing and an air outlet for discharging hot air, the said air conducting device further comprising a portion forming a second volume intended to hold the radiator in a fixed position, the first and second volumes being attached to the cover, characterized in that the air conducting device forms a one-piece component and the conducting device performs a function of protecting a portion of the pipes (3, 4) and the radiator.
Pipe support assembly comprising: - a pipe support shell body having a substantially semi-cylindrical wall portion conforming to an outer contour of a pipe to be supported, and having a length which is greater than a width thereof, wherein the shell body has an open top flanked by longitudinal rims and a flange formed at each of said rims, - at least one hanger assembly adapted to be suspended from an overhead support structure and including an engagement portion for engaging at least one of the flanges of the pipe support shell body, characterized in that the flanges extend outwardly from the respective longitudinal rims and are each provided with a series of perforations distributed over the length thereof, and wherein the engagement portion of the hanger assembly is adapted to be inserted at least partially through at least one of the perforations in one of the flanges, wherein said hanger assembly comprises a hanger bracket having an engagement portion comprising a hook member at a terminal end of the bracket adapted for a hooking engagement with one of the flanges of the shell body, and wherein the hook member has one or more projections adapted to be inserted through one or more of the perforations in the flange. - a pipe support shell body having a substantially semi-cylindrical wall portion conforming to an outer contour of a pipe to be supported, and having a length which is greater than a width thereof, wherein the shell body has an open top flanked by longitudinal rims and a flange formed at each of said rims, - at least one hanger assembly adapted to be suspended from an overhead support structure and including an engagement portion for engaging at least one of the flanges of the pipe support shell body,
Attachment device for attaching a window pane inside a vehicle body of a motor vehicle, wherein a pane holder has a curved surface that abuts at a reversely curved counter surface of a base body, wherein the attachment device is embodied in such a manner that the window surface of a window pane to be attached is parallel to a tangent and/or to a tangent plane of the curved surface, and wherein an adjusting means is provided by means of which the pane holder can be displaced relative to the base body along the counter surface for adjusting the angular orientation and/or the pre-stress of a window pane to be attached, characterized in that the adjusting means has a spindle that is aligned along a secant and/or chord of the curved counter-surface or a cross-sectional line of the curved counter surface, wherein the spindle is mounted at the base body in a rotatable manner and meshes with a corresponding thread of a driver that is connected to the pane holder.
The use of ulvans, or of ulvan-derived oligosaccharides obtained by acid hydrolysis or enzymatic hydrolysis of said ulvans, as activators of plant defense and resistance reactions against biotic or abiotic stresses.
An engine support system for supporting an internal combustion engine unit, the engine support system comprising: a support structure having a counterweight section and a top section, the top section being provided with a plurality of outer mounting sections each having an upper face and a lower face, a plurality of upper resilient mountings arranged at the upper faces of the outer mounting sections for supporting the internal combustion engine unit; and a plurality of lower resilient mountings arranged at the lower faces of the outer mounting sections for supporting the support structure, characterized in that the mass of the counterweight is at least 80% of the mass of the internal combustion engine unit, for example, about 90%, 100% or 110%. a support structure having a counterweight section and a top section, the top section being provided with a plurality of outer mounting sections each having an upper face and a lower face, a plurality of upper resilient mountings arranged at the upper faces of the outer mounting sections for supporting the internal combustion engine unit; and a plurality of lower resilient mountings arranged at the lower faces of the outer mounting sections for supporting the support structure, characterized in that the mass of the counterweight is at least 80% of the mass of the internal combustion engine unit, for example, about 90%, 100% or 110%.
Two-dimensional neutron detection system for neutron scattering comprising: - a means for emitting a monochromatic neutron beam, - a support means adapted for receiving a sample, - a photoemission means adapted for being activated by a neutron radiation, said photoemission means emitting alpha radiation originating from a single nuclear reaction, - a cooled low light level charge-coupled detection device, wherein the photoemission means and the charge-coupled detection device are enclosed in a box and wherein the photoemission means is lined with a surface opaque to light and transparent to neutron radiation, and located on the inlet of the photoemission means, - an amplification means enclosed in said box, located upstream the charge-coupled detection device and coupled with the charge-coupled detection device, wherein the amplification means and the charge-coupled detection device are surrounded by a shield for stopping gamma radiation and wherein the photoemission means and the charge-coupled detection device coupled with the amplification means respectively form the inlet end and outlet end of the box, said box being designed such that no light radiation other than that emitted by the photoemission means can penetrate inside, said box further comprising inside walls adapted for absorbing neutron and gamma radiation; and - a filter means, the filter means being located between the support means and the photoemission means and being adapted for trapping at least a substantial part of the monochromatic neutron beam transmitted by the sample. - a means for emitting a monochromatic neutron beam, - a support means adapted for receiving a sample, - a photoemission means adapted for being activated by a neutron radiation, said photoemission means emitting alpha radiation originating from a single nuclear reaction, - a cooled low light level charge-coupled detection device, wherein the photoemission means and the charge-coupled detection device are enclosed in a box and wherein the photoemission means is lined with a surface opaque to light and transparent to neutron radiation, and located on the inlet of the photoemission means, - an amplification means enclosed in said box, located upstream the charge-coupled detection device and coupled with the charge-coupled detection device, wherein the amplification means and the charge-coupled detection device are surrounded by a shield for stopping gamma radiation and wherein the photoemission means and the charge-coupled detection device coupled with the amplification means respectively form the inlet end and outlet end of the box, said box being designed such that no light radiation other than that emitted by the photoemission means can penetrate inside, said box further comprising inside walls adapted for absorbing neutron and gamma radiation; and - a filter means, the filter means being located between the support means and the photoemission means and being adapted for trapping at least a substantial part of the monochromatic neutron beam transmitted by the sample.
A method of manufacturing an inertial measurement unit (600, 900) comprising: fabricating a plurality of completely separate, individual MEMS inertial sensor packages (100, 200, 230, 260, 602, 902) at a package level as sealed packages containing a MEMS inertial sensor chip (214, 244, 274) and an integrated circuit (212, 242, 272) electrically connected together, wherein fabricating the individual MEMS inertial sensor packages (100, 200, 230, 260, 602, 902) comprises forming mechanical interconnect features (104, 204, 234, 264, 604) in each package; and assembling the IMU (600, 900) by mechanically interconnecting the mechanical interconnect features (104, 204, 234, 264, 604) of each individual MEMS inertial sensor package (100, 200, 230, 260, 602, 902) with the mechanical interconnect features (104, 204, 234, 264, 604) of another individual MEMS inertial sensor package (100, 200, 230, 260, 602, 902) in a mutually orthogonal orientation, wherein there are no hinged connections between the individual MEMS inertial sensor packages (100, 200, 230, 260, 602, 902) when the IMU (600, 900) is assembled. fabricating a plurality of completely separate, individual MEMS inertial sensor packages (100, 200, 230, 260, 602, 902) at a package level as sealed packages containing a MEMS inertial sensor chip (214, 244, 274) and an integrated circuit (212, 242, 272) electrically connected together, wherein fabricating the individual MEMS inertial sensor packages (100, 200, 230, 260, 602, 902) comprises forming mechanical interconnect features (104, 204, 234, 264, 604) in each package; and assembling the IMU (600, 900) by mechanically interconnecting the mechanical interconnect features (104, 204, 234, 264, 604) of each individual MEMS inertial sensor package (100, 200, 230, 260, 602, 902) with the mechanical interconnect features (104, 204, 234, 264, 604) of another individual MEMS inertial sensor package (100, 200, 230, 260, 602, 902) in a mutually orthogonal orientation, wherein there are no hinged connections between the individual MEMS inertial sensor packages (100, 200, 230, 260, 602, 902) when the IMU (600, 900) is assembled.
A therapeutic or prophylactic agent for use in treating a disease, a disorder, or a condition of a corneal endothelium, wherein the agent is selected from the group consisting of laminins and fragments thereof.
Process for hydrotreating a hydrocarbon oil employing at least a first and a second reactor vessel, which process comprises: (i) contacting the hydrocarbon oil in the first reactor vessel at elevated temperature and pressure with a hydrotreating catalyst in the presence of a hydrogen-containing gas, thereby consuming hydrogen; (ii) separating the effluent of step (i) into partly hydrotreated hydrocarbon oil and contaminated hydrogen-containing gas using a stripping column employing used hydrogen-containing gas as stripping gas; (iii) contacting partly hydrotreated hydrocarbon oil obtained in step (ii) in the second reactor vessel at elevated temperature and pressure with a hydrotreating catalyst in the presence of clean hydrogen-containing gas, thereby consuming hydrogen, wherein at least 80% of the hydrogen consumed in steps (i) and (iii) is supplemented by additional clean hydrogen-containing gas fed to the second reactor; (iv) separating the product from step (iii) in the second reactor vessel into a hydrotreated hydrocarbon oil and used hydrogen-containing gas, which hydrotreated hydrocarbon oil can be recovered as product and, (v) transporting at least a portion of the used hydrogen-containing gas obtained in step (iv) which has a temperature of at least 200 °C to step (ii) for use as stripping gas; wherein the clean hydrogen-containing gas contains less than 0.1 % vol of hydrogen sulphide, based on the total volume of gas, and wherein the used hydrogen-containing gas emerges directly from the second hydrotreating reactor, without any cooling. (i) contacting the hydrocarbon oil in the first reactor vessel at elevated temperature and pressure with a hydrotreating catalyst in the presence of a hydrogen-containing gas, thereby consuming hydrogen; (ii) separating the effluent of step (i) into partly hydrotreated hydrocarbon oil and contaminated hydrogen-containing gas using a stripping column employing used hydrogen-containing gas as stripping gas; (iii) contacting partly hydrotreated hydrocarbon oil obtained in step (ii) in the second reactor vessel at elevated temperature and pressure with a hydrotreating catalyst in the presence of clean hydrogen-containing gas, thereby consuming hydrogen, wherein at least 80% of the hydrogen consumed in steps (i) and (iii) is supplemented by additional clean hydrogen-containing gas fed to the second reactor; (iv) separating the product from step (iii) in the second reactor vessel into a hydrotreated hydrocarbon oil and used hydrogen-containing gas, which hydrotreated hydrocarbon oil can be recovered as product and, (v) transporting at least a portion of the used hydrogen-containing gas obtained in step (iv) which has a temperature of at least 200 °C to step (ii) for use as stripping gas;
Apparatus for illuminating a probe of a probe microscope, the apparatus comprising: a lens arranged to receive a radiation beam and direct it onto the probe; and a scanning system for varying over time the angle of incidence at which the beam enters the lens relative to its optical axis, wherein the scanning system comprises a beam steering mirror which reflects the beam towards the lens, and a mirror actuator for rotating the beam steering mirror, wherein the beam is a detection beam which reflects from the probe to produce a reflected detection beam, and the apparatus further comprises a detection system arranged to receive the reflected detection beam from the probe and detect movement of the probe from the reflected detection beam, wherein the lens and beam steering mirror are arranged so that the reflected detection beam passes through the lens and is reflected by the beam steering mirror, and in that the beam steering mirror can be translated as well as rotated by the mirror actuator.
An electronic device (101, 300, 400, 500) for providing augmented reality content, the electronic device comprising: a first housing (410, 510); a second housing (420, 520), wherein at least one of the first housing and the second housing is configured to be movable relative to the other one of the first housing and the second housing; a display (450, 550) comprising a screen which is expandable or retractable, wherein a size of a part of the screen visually exposed to an outside changes as at least one of the first housing and the second housing is moved; an antenna (430, 530) disposed in a partial area of the first housing; a camera (440, 540) disposed in a partial area of the second housing; a memory storing instructions; and at least one processor, wherein the instructions are executable by the at least one processor to cause the electronic device to: obtain information on a first position between the antenna and an anchor, wherein the anchor comprises an external electronic device (102, 104) configured to perform communication with the electronic device; obtain information on a position change between the antenna and the camera; and estimate information on a second position between the camera and the anchor based on the information on the first position and the information on the position change. a first housing (410, 510); a second housing (420, 520), wherein at least one of the first housing and the second housing is configured to be movable relative to the other one of the first housing and the second housing; a display (450, 550) comprising a screen which is expandable or retractable, wherein a size of a part of the screen visually exposed to an outside changes as at least one of the first housing and the second housing is moved; an antenna (430, 530) disposed in a partial area of the first housing; a camera (440, 540) disposed in a partial area of the second housing; a memory storing instructions; and at least one processor, wherein the instructions are executable by the at least one processor to cause the electronic device to: obtain information on a first position between the antenna and an anchor, wherein the anchor comprises an external electronic device (102, 104) configured to perform communication with the electronic device; obtain information on a position change between the antenna and the camera; and estimate information on a second position between the camera and the anchor based on the information on the first position and the information on the position change. obtain information on a first position between the antenna and an anchor, wherein the anchor comprises an external electronic device (102, 104) configured to perform communication with the electronic device; obtain information on a position change between the antenna and the camera; and estimate information on a second position between the camera and the anchor based on the information on the first position and the information on the position change.
Hearing apparatus, comprising - a housing having a first opening and a second opening (23, 24), and - a frame, in or on which a signal processing component (13, 14, 15, 16) is secured and which is insertable into the first opening of the housing as far as an end position, characterized in that - a ramp is disposed in the housing and interacts with the frame such that the frame, upon insertion into the housing along a direction of insertion, is also moved perpendicularly with respect to the direction of insertion to the second opening, only in a section as far as the end position that is less than 30% of the insertion path from the first opening to the end position, wherein the signal processing component is mounted in the end position in a soundproof manner with respect to the interior of the housing at the second opening (23, 24), wherein a sealing element is disposed for this purpose on the frame and, in the end position of the frame, presses against the housing at the second opening (23, 24). - a housing having a first opening and a second opening (23, 24), and - a frame, in or on which a signal processing component (13, 14, 15, 16) is secured and which is insertable into the first opening of the housing as far as an end position, - a ramp is disposed in the housing and interacts with the frame such that the frame, upon insertion into the housing along a direction of insertion, is also moved perpendicularly with respect to the direction of insertion to the second opening, only in a section as far as the end position that is less than 30% of the insertion path from the first opening to the end position, wherein the signal processing component is mounted in the end position in a soundproof manner with respect to the interior of the housing at the second opening (23, 24), wherein a sealing element is disposed for this purpose on the frame and, in the end position of the frame, presses against the housing at the second opening (23, 24).
Method for detecting an unsecured load in an, in particular automatically operable, vehicle, by means of a control unit, wherein - measurement data in the form of lateral accelerations and/or longitudinal accelerations of the vehicle acquired by at least one acceleration sensor are received, - a time interval for detecting the unsecured load is started when the measured lateral accelerations or longitudinal accelerations exceed a limit value, - during the started time interval, measurement data acquired by at least one sensor (8, 10, 12) are received and derivatives of the received measurement data with respect to time are calculated, - an event is counted when the derivatives of the received measurement data with respect to time exceed the one threshold value, - an unsecured load is detected when a minimum number of counted events that are counted during the started time interval is reached, wherein, when the lateral acceleration exceeds the limit value, the time interval has a start time with a time offset of t 0 = b i a y and an end time of t end = 3 b i a y or, when the longitudinal acceleration exceeds the limit value, said time interval has a start time with a time offset of t 0 = l i a x and an end time of t end = 3 l i a x, wherein I is a length of a cargo compartment and b is a width of the cargo compartment of the vehicle. - measurement data in the form of lateral accelerations and/or longitudinal accelerations of the vehicle acquired by at least one acceleration sensor are received, - a time interval for detecting the unsecured load is started when the measured lateral accelerations or longitudinal accelerations exceed a limit value, - during the started time interval, measurement data acquired by at least one sensor (8, 10, 12) are received and derivatives of the received measurement data with respect to time are calculated, - an event is counted when the derivatives of the received measurement data with respect to time exceed the one threshold value, - an unsecured load is detected when a minimum number of counted events that are counted during the started time interval is reached,