mhurhangee/ep-ind-claims huggingface dataset:
A laser generator comprising: a laser generating part (1, 2, 4, 5) including a mirror outputting a laser light, a laser-introducing duct guiding the laser beam output by the laser generating part (1, 2, 4, 5), a light path duct installed next to the laser-introducing duct and guiding the laser beam, and a condensing lens placed at an exit of the light path duct and condensing the laser beam, characterized by further comprising at least one of a pair of a first gas introducing part placed near the mirror at the laser-introducing duct and introducing gas into the laser-introducing duct, and a first flow laminator placed inside the first gas introducing part and regulating flow of the gas, and a pair of a second gas introducing part placed near the condensing lens at the light path duct and introducing the gas into the light path duct and a second flow laminator placed inside the second gas introducing part and regulating flow of the gas. a laser generating part (1, 2, 4, 5) including a mirror outputting a laser light, a laser-introducing duct guiding the laser beam output by the laser generating part (1, 2, 4, 5), a light path duct installed next to the laser-introducing duct and guiding the laser beam, and a condensing lens placed at an exit of the light path duct and condensing the laser beam, characterized by further comprising at least one of a pair of a first gas introducing part placed near the mirror at the laser-introducing duct and introducing gas into the laser-introducing duct, and a first flow laminator placed inside the first gas introducing part and regulating flow of the gas, and a pair of a second gas introducing part placed near the condensing lens at the light path duct and introducing the gas into the light path duct and a second flow laminator placed inside the second gas introducing part and regulating flow of the gas.
A folding unit for corrugated cardboard sheets in inline production of corrugated cardboard boxes, comprising a pair of parallel and laterally displaceable folding beams (1, 2) each with an endless conveying belt (3, 4), which folding beams extend from the inlet of the folding unit to the outlet of the folding unit, a pair of folding rules (5, 6) which are arranged under the respective folding beams (1, 2) and which extend from the inlet of the folding unit and towards, but not all the way to, the outlet of the folding unit, a pair of folding rods (33, 34) fixedly positioned outside the respective folding rules (5, 6) and at angle to the respective folding rules, said folding rods being arranged in the folding unit front portion, seen in the conveying direction of the corrugated cardboard sheets, a pair of folding belts (7, 8) which are arranged under and cooperate with a respective folding rule (5, 6) and extend from an associated guide roller with a vertical shaft at the terminal end of the folding rod (33, 34) seen in the conveying direction to an associated guide roller with a horizontal shaft substantially adjacent to the outlet, and a pair of wheel stands (22, 23) which are each engaged with the respective folding belts (7, 8) in a position in the conveying direction of the corrugated cardboard sheets after the terminal end of the folding rules (5, 6) and substantially adjacent to the respective folding beams (1, 2), whereby a corrugated cardboard sheet supplied at the inlet of the folding unit is grasped by the pair of conveying belts (3, 4) and conveyed along the folding rules (5, 6) and the two outermost panels (55, 56) of the corrugated cardboard sheet being successively folded from 0° to 90° by the respective folding rods (33, 34) in cooperation with the associated folding rule (5, 6), after which each panel (55, 56) folded 90° is engaged with the associated folding belt (7, 8) and the folding rule (5, 6) cooperating with said folding belt for continued folding and then leaves the associated folding rule (5, 6) to be contacted with the associated wheel stand (22, 23) and is finally delivered from the pair of guide rollers with a horizontal shaft, the panels (55, 56) folded 180°, at the outlet, characterised in that each wheel stand (22,23) comprises an attachment, which is fixedly attached to the associated folding beam (1, 2) and in which at least one guide plate is fixedly attached perpendicular to the folding beam (1,2), at least one wheel which is rotatably supported by a support, which by means of a pair of separate guide pins is turnably suspended from a pair of vertically arcuate slots in said guide plate, and an actuator, whose one end is turnably attached to the attachment and whose other end is turnably attached to the support, the angle of said wheel to the associated conveying belt (3, 4) being set by means of the actuator, and that the actuator is controlled from a driving and setting console in which the dimensions and properties of the corrugated cardboard sheets have been input and which, in operation of the folding unit, allows fine adjustment of the angular setting of the wheel stands (22, 23).
System for obtaining information relating to a pipe conveying a flow of fluid, and/or relating to the fluid, the system comprising: - a module (1; 30) which is self-contained in terms of data storing and energy supply, comprising means of acquiring data, subsequent analysis of which makes it possible to obtain information relating to the pipe and/or the fluid, and means of storing the data which said data acquisition means acquire, the self-contained module being arranged to be pushed by the fluid flow after being introduced into the pipe, and - a mechanical link which is connected to the self-contained module and accessible from outside the pipe, said mechanical link having no properties for transmitting the data which the self-contained module acquires to outside the pipe, or for supplying energy to the self-contained module from outside the pipe. - a module (1; 30) which is self-contained in terms of data storing and energy supply, comprising means of acquiring data, subsequent analysis of which makes it possible to obtain information relating to the pipe and/or the fluid, and means of storing the data which said data acquisition means acquire, the self-contained module being arranged to be pushed by the fluid flow after being introduced into the pipe, and - a mechanical link which is connected to the self-contained module and accessible from outside the pipe, said mechanical link having no properties for transmitting the data which the self-contained module acquires to outside the pipe, or for supplying energy to the self-contained module from outside the pipe.
Method for preparing ß-functionalized carboxylic acid esters according to formula whereby R represents an alkyl group with 1 to 8 C-atoms, R' stands for a hydrogen atom, or an alkyl moiety with 1 to 8 C-atoms, and n stands for zero, or a number of 1 to 20, and X represents either a group Ph-R" whereby R" represents a hydrogen atom or an alkyl group with 1 to 6 C-atoms, or an group R""-N-R"', whereby R"' and R"" stand independently for linear or branched or cyclic alkyls with 1 to 8 C-atoms or form, together with the nitrogen atom to which they are attached, a pyrrolyl, pyrrolinyl or pyrrolidinyl group, characterized in reacting in one-pot an unsaturated ester according to general formula whereby n, R and R' have the same meaning as in formula, in the presence of a second compound selected from either a boron compound selected from the group comprising PhB 2, PhB(pin), PhBMIDA ester, PhBF 3 K, KB(4-ClC 6 H 4) 4, NaB(2-naphthyl) 4, NaB(4-tolyl) 4, KB(2-thienyl) 4 and sodium tetraphenylborate, or an amine R"'-NH-R"", whereby R"' and R"" have the same meaning as above in the presence of a rhodium containing catalyst selected from (i) Rh(acac), [Rh] 2 and [RH(Cl)] 2 together with (ii) a Biphephos or P(Oallyl) 3 ligand in molar amounts of (i): (ii) or 2:1 to 1:2, and preferably of 1:1, under an oxygen-free atmosphere at temperatures between 80 - 120 °C in a solvent.
Heat exchanger for a home appliance with a pipe for conducting a first fluid and with a conduit arranged outside the pipe for conducting a second fluid, wherein the conduit is a flexible plastic hose which forms an interior space for receiving the second fluid and wherein the pipe extends inside the interior space, characterised in that the heat exchanger has at least one connecting piece for disentangling the fluids, wherein the connection piece comprises an outer pipe and an inner pipe, wherein the inner pipe is guided through a wall of the outer pipe, and wherein the pipe is connected to the inner pipe and the plastic hose is connected to the outer pipe, and wherein the inner pipe runs straight and the outer pipe has a bend, wherein the inner pipe emerges from the outer pipe in a region of the bend.
A method for regulating tire air pressure, the tire having a tread with a ground contacting portion and defining lateral and longitudinal directions, the method comprising the steps of: dividing the ground contacting portion of the tread into multiple zones along the lateral direction, the multiple zones including a shoulder zone along each shoulder of the tire and one or more intermediate zones between the shoulder zones; selecting a range of tire air pressures and a range of tire loads; determining, for a load L i in the selected range of tire loads, the average longitudinal stress σ x in each of the zones over the selected range of tire air pressures; identifying, from the selected range of tire air pressures, a preferred air pressure P p for the load L i, wherein the preferred air pressure P p is the pressure at which both i) the average longitudinal stress σ x-avg for all of the zones is minimized and ii) the average longitudinal stress σ x-avg for each of the intermediate zones is maintained at or above a predetermined threshold longitudinal stress σ x-th; repeating, over the selected range of tire loads L i, said steps of determining and identifying so as to provide a correlation of the preferred air pressures P p corresponding to multiple loads L i for the selected range of tire loads; ascertaining an actual or anticipated tire load L a on a vehicle; and adjusting tire air pressure during vehicle use to the preferred air pressure P p for the tire load L a using the correlation from said step of repeating. dividing the ground contacting portion of the tread into multiple zones along the lateral direction, the multiple zones including a shoulder zone along each shoulder of the tire and one or more intermediate zones between the shoulder zones; selecting a range of tire air pressures and a range of tire loads; determining, for a load L i in the selected range of tire loads, the average longitudinal stress σ x in each of the zones over the selected range of tire air pressures; identifying, from the selected range of tire air pressures, a preferred air pressure P p for the load L i, wherein the preferred air pressure P p is the pressure at which both i) the average longitudinal stress σ x-avg for all of the zones is minimized and ii) the average longitudinal stress σ x-avg for each of the intermediate zones is maintained at or above a predetermined threshold longitudinal stress σ x-th; repeating, over the selected range of tire loads L i, said steps of determining and identifying so as to provide a correlation of the preferred air pressures P p corresponding to multiple loads L i for the selected range of tire loads; ascertaining an actual or anticipated tire load L a on a vehicle; and adjusting tire air pressure during vehicle use to the preferred air pressure P p for the tire load L a using the correlation from said step of repeating.
A machine cell for the forming and joining of a first sheet material to a second sheet material, the first sheet material having a surface contour, the machine cell comprising: a lower nest for holding the first sheet material, said lower nest including a frame and an upper surface, said upper surface including a vacuum pad and a material-contacting portion, said material-contacting portion being defined to substantially cooperate with the surface contour of the first sheet material; and a vacuum system in fluid connection with said vacuum pad of said upper surface of said lower nest for holding the first sheet material during the joining of the first sheet material to the second sheet material; characterised in that said vacuum pad includes at least one recessed channel (210, 210', 210", 210"') to allow vacuum to be applied to the first sheet material, and said vacuum system includes a plenum and at least one fluid line (216, 216', 216", 216"') connecting said plenum to said at least one recessed channel, wherein said vacuum pad comprises an elastic or semi-elastic polymerized material to provide an air-tight seal with the first sheet material and a cushioned surface support for the first sheet material. a lower nest for holding the first sheet material, said lower nest including a frame and an upper surface, said upper surface including a vacuum pad and a material-contacting portion, said material-contacting portion being defined to substantially cooperate with the surface contour of the first sheet material; and a vacuum system in fluid connection with said vacuum pad of said upper surface of said lower nest for holding the first sheet material during the joining of the first sheet material to the second sheet material; characterised in that said vacuum pad includes at least one recessed channel (210, 210', 210", 210"') to allow vacuum to be applied to the first sheet material, and said vacuum system includes a plenum and at least one fluid line (216, 216', 216", 216"') connecting said plenum to said at least one recessed channel, wherein said vacuum pad comprises an elastic or semi-elastic polymerized material to provide an air-tight seal with the first sheet material and a cushioned surface support for the first sheet material.
A TV set having ambient light capability, the TV set comprising a back cover assembly (30, 80) having a plurality of side emitting light emitting diodes, LEDs, for emitting ambient light towards a surface behind the TV set, wherein said side emitting LEDs emit light parallel to a back side, the back cover assembly (30, 80) comprising: a back cover for protecting the TV set, the back cover comprising: - a back side facing in use the surface behind the TV set; - a reflective surface for deflecting light emitted from said side emitting LEDs towards the surface behind the TV set, and a printed circuit board parallel to the back side, characterized in - that the reflective surface is inclined to the printed circuit board onto which said side emitting LEDs are mounted; and - that the reflective surface is formed by bending cut out reflective flaps of a part of the back side. - a back side facing in use the surface behind the TV set; - a reflective surface for deflecting light emitted from said side emitting LEDs towards the surface behind the TV set, and - that the reflective surface is inclined to the printed circuit board onto which said side emitting LEDs are mounted; and - that the reflective surface is formed by bending cut out reflective flaps of a part of the back side.
A method for calculating a state of health of a battery pack, the method comprising: a current integrated value calculation step corresponding to an SOC change amount of calculating a current integrated value corresponding to the SOC change amount using a current integration method; an SOH update signal checking step of checking whether an SOH update signal is applied and a condition of the SOH update signal; a final current integrated value calculation step of calculating a final current integrated value based on the current integrated value corresponding to the SOC change amount when the SOH update signal satisfies a predetermined condition in the SOH update signal checking step; a battery pack nominal capacity setting step of setting a nominal capacity of the battery pack to the final current integrated value calculated in the final current integrated value calculation step when the final current integrated value calculation step is performed; and a battery pack SOH calculation step of calculating the SOH of the battery pack based on the nominal capacity of the battery pack set in the battery pack nominal capacity setting step. a current integrated value calculation step corresponding to an SOC change amount of calculating a current integrated value corresponding to the SOC change amount using a current integration method; an SOH update signal checking step of checking whether an SOH update signal is applied and a condition of the SOH update signal; a final current integrated value calculation step of calculating a final current integrated value based on the current integrated value corresponding to the SOC change amount when the SOH update signal satisfies a predetermined condition in the SOH update signal checking step; a battery pack nominal capacity setting step of setting a nominal capacity of the battery pack to the final current integrated value calculated in the final current integrated value calculation step when the final current integrated value calculation step is performed; and a battery pack SOH calculation step of calculating the SOH of the battery pack based on the nominal capacity of the battery pack set in the battery pack nominal capacity setting step.
A heat exchanger, comprising a first heat exchanger module with a first evaporator channel and a first condenser channel; wherein the first evaporator channel and the first condenser channel are arranged in a first conduit and wherein the first evaporator channel and the first condenser channel are fluidly connected to one another by a first upper distribution manifold and a first lower distribution manifold such that the first evaporator channel and the first condenser channel form a first loop for a working fluid; the first heat exchanger module further comprising a first evaporator heat transfer element for transferring heat into the first evaporator channel; and a first condenser heat transfer element for transferring heat out of the first condenser channel; characterized in that the heat exchanger comprises a second heat exchanger module coupled to the first heat exchanger module by a fluid connection element (40, 200, 205) for an exchange of the working fluid between the first heat exchanger module and second heat exchanger module wherein the second heat exchanger module comprises a second evaporator channel and a second condenser channel; wherein the second evaporator channel and the second condenser channel are arranged in a second conduit; and wherein the second evaporator channel and the second condenser channel are fluidly connected to one another by a second upper distribution manifold and a second lower distribution manifold such that the second evaporator channel and the second condenser channel form a second loop for the working fluid, wherein the second condenser channel is arranged opposite to the first evaporator channel with respect to the first condenser channel when seen in a virtual plane to which the first condenser channel and the second condenser channel and the first evaporator channel are projected.
Safety switching apparatus comprising a control side with at least one single-failure tolerance, having a first and second control unit (12, 14), each embodied to emit a switch command and comprising at least one monitoring unit (30, 30.1, 30.2, 30.3) having a first and a second connection element (31, 36), wherein the first control unit is embodied to emit the switch command to the first connection element and the second control unit is embodied to emit the switch command to the second connection element, wherein the first and second connection element (31, 36) is embodied to emit the switch command to at least one switching element of at least two switching elements (52, 54, 56) on an actuation side and wherein the at least two switching elements (52, 54, 56) are embodied to interrupt a line of a load circuit, characterised in that the at least one switching element of the at least two switching elements (52, 54, 56) is connected in series with the first and second connection element (31, 36), the at least two switching elements (52, 54, 56) are each embodied as standard components that are free from a forced guidance of the contacts thereof, and the first connection element is directly connected to the second control unit via a first feedback channel and the second connection element is directly connected to the first control unit via a second feedback channel.
A hydroelectric power generation apparatus comprising: a hydroelectric power generation module including a rotary blade (1, 20) and a power generator configured to generate power by rotation of the rotary blade (1, 20); a supporting part that supports the hydroelectric power generation module; and a fixing part that fixes the supporting part to a water channel, the fixing part including an L-shaped angle having a bolt hole, the L-shaped angle being connected to the supporting part, a bolt (5a, 5b) inserted into the bolt hole to press a wall surface of the water channel to fix the supporting part to the water channel, and a plate-shaped member disposed on a side of a tip of the bolt (5a, 5b) and located between the bolt (5a, 5b) and the wall surface of the water channel. a hydroelectric power generation module including a rotary blade (1, 20) and a power generator configured to generate power by rotation of the rotary blade (1, 20); a supporting part that supports the hydroelectric power generation module; and a fixing part that fixes the supporting part to a water channel, the fixing part including an L-shaped angle having a bolt hole, the L-shaped angle being connected to the supporting part, a bolt (5a, 5b) inserted into the bolt hole to press a wall surface of the water channel to fix the supporting part to the water channel, and a plate-shaped member disposed on a side of a tip of the bolt (5a, 5b) and located between the bolt (5a, 5b) and the wall surface of the water channel.
An apparatus for wireless communication, said apparatus being at a User Equipment, UE, and comprising means configured to: receive fast master cell group, MCG, link recovery configuration information; receive conditional handover, CHO, configuration information indicating a set of CHO configurations and a set of execution conditions for a set of cells, wherein each cell is associated with a CHO configuration and an execution condition; evaluate the set of execution conditions based on the CHO configuration information; in response to a radio link failure in a MCG, initiate a fast MCG link recovery procedure and start a timer associated with the fast MCG link recovery procedure; and stop evaluating the set of execution conditions after initiating the fast MCG link recovery procedure. receive fast master cell group, MCG, link recovery configuration information; receive conditional handover, CHO, configuration information indicating a set of CHO configurations and a set of execution conditions for a set of cells, wherein each cell is associated with a CHO configuration and an execution condition; evaluate the set of execution conditions based on the CHO configuration information; in response to a radio link failure in a MCG, initiate a fast MCG link recovery procedure and start a timer associated with the fast MCG link recovery procedure; and stop evaluating the set of execution conditions after initiating the fast MCG link recovery procedure.