mhurhangee/ep-ind-claims huggingface dataset:
A pallet comprising a main body with a front surface intended for receiving goods, a rear surface opposite the front surface and a lateral perimeter, a plurality of shoes fixed to the main body by connection means, a first cavity comprised in the main body with an inlet located on the lateral perimeter, a stiffening element housed in this first cavity, wherein the first cavity is substantially in the shape of a cylinder and the stiffening element is substantially in the shape of a tube, the axes of the cylinder and tube being perpendicular to the lateral perimeter, characterised in that the pallet additionally comprises at least one securing element fixed to the inlet of the first cavity and to the stiffening element, where the securing element comprises: first fixing means adapted for being fixed to the stiffening element, and second fixing means adapted for being fixed to the inlet of the first cavity, wherein the first fixing means comprise at least one substantially circular deformable element, the outer diameter of which is greater than the inner diameter of the stiffening element, such that it allows the securing element to be partially inserted into the stiffening element and remain fixed therein by friction, and wherein the second fixing means comprise a tongue adapted for being fixed to the inlet of the first cavity. first fixing means adapted for being fixed to the stiffening element, and second fixing means adapted for being fixed to the inlet of the first cavity,
An organic electroluminescent lighting device (10, 20, 30) comprising: an organic light-emitting film; a pair of electrode films (2a, 2b) that are stacked to face each other sandwiching the organic light-emitting element; wherein the pair of electrode films are formed rectangular and differ from each other in polarity; wherein the pair of electrode films comprise power supply terminal sections (6a, 6b, 6c, 6d) which are connected to the power source; wherein power supply terminal sections each have edge sides which face each other at a surface of one of the electrode films; and an auxiliary electrode film group including a plurality of first belt-like auxiliary electrode films (3a, 3b, 3c, 3d) and a plurality of second belt-like auxiliary electrode films (3a, 3b, 3c, 3d); wherein the first auxiliary electrode films extend in a direction parallel to the edge sides and the second auxiliary electrode films extend in a direction perpendicular to the edge sides; wherein the first auxiliary electrode films and the second auxiliary electrode films are located away from each other on the surface of one of the electrode films, wherein a sectional area viewed at a section where the plurality of first auxiliary electrode films is cut in the direction perpendicular to the edge sides becomes larger in relation to increasing distance from the edge sides, and a sectional area viewed at a section where the plurality of second auxiliary electrode films is cut in the direction parallel to the edge sides becomes larger in relation to increasing distance from the edge sides. an organic light-emitting film; a pair of electrode films (2a, 2b) that are stacked to face each other sandwiching the organic light-emitting element; wherein the pair of electrode films are formed rectangular and differ from each other in polarity; wherein the pair of electrode films comprise power supply terminal sections (6a, 6b, 6c, 6d) which are connected to the power source; wherein power supply terminal sections each have edge sides which face each other at a surface of one of the electrode films; and an auxiliary electrode film group including a plurality of first belt-like auxiliary electrode films (3a, 3b, 3c, 3d) and a plurality of second belt-like auxiliary electrode films (3a, 3b, 3c, 3d); wherein the first auxiliary electrode films extend in a direction parallel to the edge sides and the second auxiliary electrode films extend in a direction perpendicular to the edge sides; wherein the first auxiliary electrode films and the second auxiliary electrode films are located away from each other on the surface of one of the electrode films, wherein a sectional area viewed at a section where the plurality of first auxiliary electrode films is cut in the direction perpendicular to the edge sides becomes larger in relation to increasing distance from the edge sides, and a sectional area viewed at a section where the plurality of second auxiliary electrode films is cut in the direction parallel to the edge sides becomes larger in relation to increasing distance from the edge sides.
Process for producing a surface of a workpiece that has surface structures with dimensions in the sub-micrometre range, the surface comprising a material that is selected from at least one ceramic, at least one fibre- and/or non-fibrous carbon- and/or boron-nitride-containing composite material with a carbon and/or ceramic matrix or a combination of the same, in which a starting surface comprising the said material which does not yet have surface structures with dimensions in the sub-micrometre range and which is accessible to a laser beam irradiation and on which the surface structures are to be formed is completely scanned with a pulsed laser beam one or more times in such a way that adjacent light spots of the laser beam abut one another without any gaps or overlap, the following conditions being satisfied: 0,07 kW 2 ⋅ W ⋅ kHz ⋅ % ⋅ ns ⋅ W / m ⋅ K μm 2 ⋅ mm / s ⋅ K ⋅ J / kg ⋅ K ⋅ nm ≤ ε ≤ 3000 kW 2 ⋅ W ⋅ kHz ⋅ % ⋅ ns ⋅ W / m ⋅ K μm 2 ⋅ mm / s ⋅ K ⋅ J / kg ⋅ K ⋅ nm where: ε = P p 2 ⋅ P m ⋅ f ⋅ α ⋅ t ⋅ κ d 2 ⋅ v ⋅ T L ⋅ c P ⋅ λ ⋅ 10 3 in which: P p is the peak pulse power of the exiting laser radiation [kW]; P m is the average power of the exiting laser radiation; t is the pulse length of the laser pulses [ns], where t is 0.1 ns to 4000 ns; f is the repetition rate of the laser pulses [kHz]; v is the scanning speed on the workpiece surface [mm/s]; d is the diameter of the laser beam on the workpiece [μm]; α is the absorption of the laser radiation of the irradiated material [%] under normal conditions; λ is the wavelength of the laser radiation [nm], where λ = 100 nm to 11000 nm; T L is the melting temperature of the material under normal pressure; c p is the specific heat capacity [J/kg·K] under normal conditions; κ is the specific thermal conductivity [W/m·K] under normal conditions, the atmosphere in which the process takes place being a gas or gas mixture which is reactive with respect to the surface under the process conditions and through which the said material which is comprised by the surface is chemically modified during or after the scanning with the pulsed laser beam with respect to its composition prior to scanning with the laser beam, with the proviso that no adhesion promoter is applied before the scanning with the laser beam. P p is the peak pulse power of the exiting laser radiation [kW]; P m is the average power of the exiting laser radiation; t is the pulse length of the laser pulses [ns], where t is 0.1 ns to 4000 ns; f is the repetition rate of the laser pulses [kHz]; v is the scanning speed on the workpiece surface [mm/s]; d is the diameter of the laser beam on the workpiece [μm]; α is the absorption of the laser radiation of the irradiated material [%] under normal conditions; λ is the wavelength of the laser radiation [nm], where λ = 100 nm to 11000 nm; T L is the melting temperature of the material under normal pressure; c p is the specific heat capacity [J/kg·K] under normal conditions; κ is the specific thermal conductivity [W/m·K] under normal conditions,
A multilayer cast film wherein at least one layer comprises a polyethylene composition comprising the reaction product of ethylene and optionally one or more alpha-olefin comonomers in the presence of a catalyst composition comprising a multi-metallic procatalyst via solution polymerization; wherein said polyethylene composition is characterized by one or more of the following properties: (a) a melt index, I 2, measured according to ASTM D 1238 (2.16 kg @ 190°C), of from 2.5 to 5 g/10 min; (b) density (measured according to ASTM D792) from 0.910 to 0.935 g/cm 3; (c) a melt flow ratio, I 10 /I 2, wherein I 10 is measured according to ASTM D1238 (10 kg @ 190°C) of from 6 to 7.4; and (d) molecular weight distribution (M w /M n) of from 2.5 to 3.5; and wherein when said polyethylene composition is formed into the multilayer film at a 20.3 μm (0.8 mil) thickness according to the method described herein said film is characterized with: (a) ultimate stretch greater than 320 % measured as described herein; and (b) on-pallet puncture of greater than 4.082 kg (9 lb) measured as described herein. (a) a melt index, I 2, measured according to ASTM D 1238 (2.16 kg @ 190°C), of from 2.5 to 5 g/10 min; (b) density (measured according to ASTM D792) from 0.910 to 0.935 g/cm 3; (c) a melt flow ratio, I 10 /I 2, wherein I 10 is measured according to ASTM D1238 (10 kg @ 190°C) of from 6 to 7.4; and (d) molecular weight distribution (M w /M n) of from 2.5 to 3.5; and wherein when said polyethylene composition is formed into the multilayer film at a 20.3 μm (0.8 mil) thickness according to the method described herein said film is characterized with: (a) ultimate stretch greater than 320 % measured as described herein; and (b) on-pallet puncture of greater than 4.082 kg (9 lb) measured as described herein. (a) ultimate stretch greater than 320 % measured as described herein; and (b) on-pallet puncture of greater than 4.082 kg (9 lb) measured as described herein.
A solder alloy having an alloy composition consisting of, by mass%, Bi: 30 to 60%, Ag: 0.7 to 2.0%, Cu: 0.01% or more and 1.00% or less, Ni: 0.01 to 1.00%, Sb: 0.2 to 1.5%, and optionally at least one selected from the group consisting of, at least one of P, Ge, Ga, and As: 0.1% or less in total, at least one of Fe, and Co: 0.1% or less in total, Pd: 0.1% or less, Zr: 0.1% or less, Zn: 0.1 % or less, and Pb: 0.02% or less, with the balance being Sn and unavoidable impurities, wherein the alloy composition does not contain In, Ti and Ce, and wherein the alloy composition satisfies at least one of the following relations or: 13.00 ≤ Bi / Ag + Cu + Ni + Sb ≤ 23.27 0.017 ≤ Ag + Cu + Ni / Sn ≤ 0.039 wherein Sn, Bi, Ag, Cu, Ni, and Sb in the relations and each represent the contents by mass% thereof in the solder alloy and wherein the calculations are performed according to the description. Bi: 30 to 60%, Ag: 0.7 to 2.0%, Cu: 0.01% or more and 1.00% or less, Ni: 0.01 to 1.00%, Sb: 0.2 to 1.5%, and optionally at least one selected from the group consisting of, at least one of P, Ge, Ga, and As: 0.1% or less in total, at least one of Fe, and Co: 0.1% or less in total, Pd: 0.1% or less, Zr: 0.1% or less, Zn: 0.1 % or less, and Pb: 0.02% or less, with the balance being Sn and unavoidable impurities, wherein the alloy composition does not contain In, Ti and Ce, and wherein the alloy composition satisfies at least one of the following relations or: 13.00 ≤ Bi / Ag + Cu + Ni + Sb ≤ 23.27 0.017 ≤ Ag + Cu + Ni / Sn ≤ 0.039 wherein Sn, Bi, Ag, Cu, Ni, and Sb in the relations and each represent the contents by mass% thereof in the solder alloy and wherein the calculations are performed according to the description.
THz measuring method for measuring a transported strand, in particular, an extruded pipe, in a measuring space of a THz measuring device, including at least the following steps: - providing at least three THz measuring units around the measuring space, the THz measuring units each including a THz transceiver (5, 5a, 5b, 5c) with an optical axis and a reflector (6; 6a, 6b, 6c) arranged in the optical axis and situated opposite in the measuring space, - transporting the strand through the measuring space, - for all THz measuring units (4, 4a, 4b, 4) each - emitting a THz measuring beam from the THz transceiver along its optical axis and - detecting reflected THz radiation which has been partially reflected from the wall region facing the THz transceiver, and detecting THz radiation which has been reflected on the opposite reflector, and for at least a first THz measuring unit - determining a facing wall thickness (wd1a) in the first optical axis by means of a first measuring signal of the first transceiver, characterised by, - determining an averted wall thickness (wd2a) of the wall region averted from the transceiver on the first optical axis by means of the measuring signals (S1b, S1c) of the THz transceivers (5b, 5c) of the adjacent THz measuring units (4b, 4c) that are adjacent in the circumferential direction to the first reflector, - the THz measuring units are arranged alternatingly in such a manner that a first reflector of a first THz measuring unit is adjacent to a second THz transceiver of a second THz measuring unit and a third THz transceiver of a third THz measuring unit. - providing at least three THz measuring units around the measuring space, the THz measuring units each including a THz transceiver (5, 5a, 5b, 5c) with an optical axis and a reflector (6; 6a, 6b, 6c) arranged in the optical axis and situated opposite in the measuring space, - transporting the strand through the measuring space, - for all THz measuring units (4, 4a, 4b, 4) each - emitting a THz measuring beam from the THz transceiver along its optical axis and - detecting reflected THz radiation which has been partially reflected from the wall region facing the THz transceiver, and detecting THz radiation which has been reflected on the opposite reflector, and for at least a first THz measuring unit - determining a facing wall thickness (wd1a) in the first optical axis by means of a first measuring signal of the first transceiver, characterised by, - determining an averted wall thickness (wd2a) of the wall region averted from the transceiver on the first optical axis by means of the measuring signals (S1b, S1c) of the THz transceivers (5b, 5c) of the adjacent THz measuring units (4b, 4c) that are adjacent in the circumferential direction to the first reflector, - the THz measuring units are arranged alternatingly in such a manner that a first reflector of a first THz measuring unit is adjacent to a second THz transceiver of a second THz measuring unit and a third THz transceiver of a third THz measuring unit.
A radiation-curable dispersible polyurethane synthesized from a) at least one compound having at least two free isocyanate groups, at least one allophanate group, and at least one free-radically polymerizable C=C double bond attached via the allophanate group, in which a carbonyl group or an oxygen atom in ether function is attached directly to the double bond, b) at least one compound having at least one, preferably precisely one group that is reactive toward isocyanate groups, and at least one free-radically polymerizable C=C double bond, c) if appropriate, at least one compound having at least two groups that are reactive toward isocyanate groups, selected from hydroxyl, mercapto, and primary and/or secondary amino groups, d) at least one compound having precisely one group that is reactive toward isocyanate, and at least one dispersive non-ionic group, the dispersive non-ionic group being a monofunctional polyalkylene oxide polyether alcohol which contains at least 5 and up to 50 polymerised ethylene oxide units in the stable medium, e) if appropriate, at least one compound different from b) and d), containing precisely one group that is reactive toward isocyanate groups, and f) if appropriate, at least one polyisocyanate different from a). a) at least one compound having at least two free isocyanate groups, at least one allophanate group, and at least one free-radically polymerizable C=C double bond attached via the allophanate group, in which a carbonyl group or an oxygen atom in ether function is attached directly to the double bond, b) at least one compound having at least one, preferably precisely one group that is reactive toward isocyanate groups, and at least one free-radically polymerizable C=C double bond, c) if appropriate, at least one compound having at least two groups that are reactive toward isocyanate groups, selected from hydroxyl, mercapto, and primary and/or secondary amino groups, d) at least one compound having precisely one group that is reactive toward isocyanate, and at least one dispersive non-ionic group, the dispersive non-ionic group being a monofunctional polyalkylene oxide polyether alcohol which contains at least 5 and up to 50 polymerised ethylene oxide units in the stable medium, e) if appropriate, at least one compound different from b) and d), containing precisely one group that is reactive toward isocyanate groups, and f) if appropriate, at least one polyisocyanate different from a).
An electromotive furniture drive having a control device, a power supply apparatus, a handheld control, which is coupled via a bidirectional transmission link to the control device, and having a terminal configuration having at least one electromotive consumer, whereby the terminal configuration indicates what kind of consumer is connected to the to the designated port of the control device, wherein the handheld control has at least one display apparatus for displaying stored images (28.1... 28.n) for operation, characterized in that the handheld control has an ascertainment apparatus, which is implemented to ascertain the terminal configuration, that the ascertainment apparatus is implemented in such a way that by means of an activation of the ascertainment apparatus a terminal configuration of the electromotive furniture drive is ascertained, that a configurator unit adapts the handheld control on the basis of the terminal configuration thus ascertained, in that it generates releases for the images (28.1... 28.n) corresponding to the provided terminal configuration, wherein the images (28.1... 28.n) thus released are released for display on the display apparatus, and upon actuation of an operating element (18, 19, 20, 21) assigned to the images (28.1... 28.n), a control command, which is also assigned to the image (28.1... 28.n), is transmitted from the handheld control to the electromotive furniture drive..
A seat-supporting structure, for mounting on a motorcycle frame having a main skeleton, the seat-supporting structure comprising: two load-bearing structures configured to be positioned under a seat of said motorcycle frame to support a load on the seat of said motorcycle frame, each of said load-bearing structures including a base portion located at the bottom of said load-bearing structure, having a branch portion and a frame-mounting portion, wherein said branch portion extends upward in a diagonally backward direction and said frame-mounting portion is configured to be mounted on the main skeleton, a middle portion which extends, from the branch portion of the base portion, upward in a diagonally forward direction, and a top portion which extends, from an upper part of the middle portion, upward in a diagonally backward direction to receive the load, characterised in that each of said load-bearing structures includes multiple openings and ribs so as to resist stress from the load and vibration while the motorcycle is in motion. two load-bearing structures configured to be positioned under a seat of said motorcycle frame to support a load on the seat of said motorcycle frame, each of said load-bearing structures including a base portion located at the bottom of said load-bearing structure, having a branch portion and a frame-mounting portion, wherein said branch portion extends upward in a diagonally backward direction and said frame-mounting portion is configured to be mounted on the main skeleton, a middle portion which extends, from the branch portion of the base portion, upward in a diagonally forward direction, and a top portion which extends, from an upper part of the middle portion, upward in a diagonally backward direction to receive the load, characterised in that each of said load-bearing structures includes multiple openings and ribs so as to resist stress from the load and vibration while the motorcycle is in motion.
A monitor for a blowout preventer of a wellbore, the blowout preventer comprising a housing, at least one ram slidably positionable in the housing to form a seal about the wellbore, and an actuator comprising a cylinder with a piston slidably movable therein, the piston operatively connectable with the at least one ram and movable therewith, the monitor comprising: a monitor base operatively connectable to the cylinder, the monitor base having an interior side inside the cylinder and an exterior side outside the cylinder; an interior plate positionable inside the cylinder about the interior side of the base, the interior plate operatively connectable to the piston and movable therewith; an exterior plate positionable outside the cylinder about the exterior surface of the monitor base, the exterior plate coupled by magnets to the interior plate and rotatable therewith; and a trigger sensor operatively connectable about the monitor base and the exterior plate to detect rotation thereof whereby a position of the ram may be determined. a monitor base operatively connectable to the cylinder, the monitor base having an interior side inside the cylinder and an exterior side outside the cylinder; an interior plate positionable inside the cylinder about the interior side of the base, the interior plate operatively connectable to the piston and movable therewith; an exterior plate positionable outside the cylinder about the exterior surface of the monitor base, the exterior plate coupled by magnets to the interior plate and rotatable therewith; and a trigger sensor operatively connectable about the monitor base and the exterior plate to detect rotation thereof whereby a position of the ram may be determined.
Apparatus for the production of a charged particle beam, comprising: an ion source plasma chamber, having a door, and characterised by: an accelerator hingedly mounted on an opposite face of the door from that upon which the ion source plasma chamber is mounted. an ion source plasma chamber, having a door, and
An electrophoretic medium comprising: (a) a non-polar fluid; (b) a plurality of first charged particles; and (c) polyisobutylene; the electrophoretic medium being characterized by: (d) an additive comprising a co-polymer of styrene, ethylene and propylene. (a) a non-polar fluid; (b) a plurality of first charged particles; and (c) polyisobutylene;