mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a catalyst system comprising: providing a support material and contacting the support material with an activator to form an activated support, and wherein the activated support comprises an activator to support material weight ratio of from 0.7:1 to 0.9:1; providing a transition metal catalyst compound; contacting the transition metal catalyst compound with triisobutyl aluminium (TiBAl) to form a modified catalyst compound, wherein the contact with TiBAl consists essentially of contacting the transition metal catalyst compound with TiBAl prior to contacting the support material with the modified catalyst compound; and contacting the support material with the modified catalyst compound to form a supported catalyst system. providing a support material and contacting the support material with an activator to form an activated support, and wherein the activated support comprises an activator to support material weight ratio of from 0.7:1 to 0.9:1; providing a transition metal catalyst compound; contacting the transition metal catalyst compound with triisobutyl aluminium (TiBAl) to form a modified catalyst compound, wherein the contact with TiBAl consists essentially of contacting the transition metal catalyst compound with TiBAl prior to contacting the support material with the modified catalyst compound; and contacting the support material with the modified catalyst compound to form a supported catalyst system.
Optoelectronic semiconductor chip comprising - a semiconductor body, at whose top side a first contact location is arranged and at whose underside a second contact location is arranged, - a reflective layer, which is situated in direct contact with the semiconductor body and which is directly electrically conductively connected to the second contact location, wherein the reflective layer contains a metal that tends toward migration, - a chip sidewall extending between top side and underside of the semiconductor body, wherein an electrically conductive material is arranged at the chip sidewall, said material being directly electrically conductively connected to the second contact location, characterized in that - the electrically conductive material is a radiation-transmissive, conductive oxide. - a semiconductor body, at whose top side a first contact location is arranged and at whose underside a second contact location is arranged, - a reflective layer, which is situated in direct contact with the semiconductor body and which is directly electrically conductively connected to the second contact location, wherein the reflective layer contains a metal that tends toward migration, - a chip sidewall extending between top side and underside of the semiconductor body, wherein an electrically conductive material is arranged at the chip sidewall, said material being directly electrically conductively connected to the second contact location, characterized in that - the electrically conductive material is a radiation-transmissive, conductive oxide.
A method, comprising: applying a first subset of a multi-pulse waveform to an actuator of a droplet ejection device during a first clock cycle; causing the droplet ejection device to eject a first droplet of a fluid in response to the first subset; applying a second subset of the multi-pulse waveform to the actuator during a second clock cycle; and causing the droplet ejection device to eject a second droplet of the fluid in response to the second subset, wherein the first subset precedes the second subset, wherein the first droplet has a smaller volume than the second droplet, wherein the first subset includes a first drive pulse (802, 902) that precedes a cancellation pulse (804, 910) in the first subset of the multi-pulse waveform and the first drive pulse is positioned in time near a beginning of the first clock cycle of the first subset, and wherein the second subset includes at least two drive pulses (802, 1110) and at least two cancel edges (806, 844), wherein a first cancel edge is applied subsequent to a first drive pulse of the second subset of the multi-pulse waveform, wherein the amplitude of the cancellation pulse of the first subset controls a meniscus motion associated with the first drive pulse and wherein the cancel edges of the second subset build a mass of fluid for a subsequent drive pulse. applying a first subset of a multi-pulse waveform to an actuator of a droplet ejection device during a first clock cycle; causing the droplet ejection device to eject a first droplet of a fluid in response to the first subset; applying a second subset of the multi-pulse waveform to the actuator during a second clock cycle; and causing the droplet ejection device to eject a second droplet of the fluid in response to the second subset, wherein the first subset precedes the second subset, wherein the first droplet has a smaller volume than the second droplet, wherein the first subset includes a first drive pulse (802, 902) that precedes a cancellation pulse (804, 910) in the first subset of the multi-pulse waveform and the first drive pulse is positioned in time near a beginning of the first clock cycle of the first subset, and wherein the second subset includes at least two drive pulses (802, 1110) and at least two cancel edges (806, 844), wherein a first cancel edge is applied subsequent to a first drive pulse of the second subset of the multi-pulse waveform, wherein the amplitude of the cancellation pulse of the first subset controls a meniscus motion associated with the first drive pulse and wherein the cancel edges of the second subset build a mass of fluid for a subsequent drive pulse.
Method for producing workpieces from a material panel, which comprises the following steps: a) fastening the material panel to a carrier; b) cutting individual workpieces out of the material panel with a laser; c) further processing the workpieces remaining on the carrier and d) removing the workpieces from the carrier, characterized in that to fasten the material panel to the carrier, the following steps are carried out: a1) applying a metallization to the material panel; and a2) electrodepositing a carrier layer forming the carrier on the metallization. a) fastening the material panel to a carrier; b) cutting individual workpieces out of the material panel with a laser; c) further processing the workpieces remaining on the carrier and d) removing the workpieces from the carrier, a1) applying a metallization to the material panel; and a2) electrodepositing a carrier layer forming the carrier on the metallization.
Method of producing an organic electronic device comprising an electrode, a self-assembled monolayer on said electrode and an organic semiconducting layer on said self-assembled monolayer, said method comprising the steps of (a) providing an electrode, optionally on a substrate; (b) depositing onto said electrode a formulation comprising a compound of formula R 1 -SiX 3 and an alcohol of formula R 2 -OH, with R 1 being a group of the following formula (II-b) wherein e is at each occurrence independently an integer of at least 1 and of at most 5, and R A is F, R 2 being an alkyl group having from 1 to 10 carbon atoms; and X being Cl, to obtain a self-assembled monolayer; and (c) depositing onto said self-assembled monolayer an organic semiconducting material to obtain an organic semiconducting layer (a) providing an electrode, optionally on a substrate; (b) depositing onto said electrode a formulation comprising a compound of formula R 1 -SiX 3 and an alcohol of formula R 2 -OH, with R 1 being a group of the following formula (II-b) wherein e is at each occurrence independently an integer of at least 1 and of at most 5, and R A is F, R 2 being an alkyl group having from 1 to 10 carbon atoms; and X being Cl, to obtain a self-assembled monolayer; and and an alcohol of formula R 2 -OH, with R 1 being a group of the following formula (II-b) wherein e is at each occurrence independently an integer of at least 1 and of at most 5, and R A is F, R 2 being an alkyl group having from 1 to 10 carbon atoms; and X being Cl, to obtain a self-assembled monolayer; and (c) depositing onto said self-assembled monolayer an organic semiconducting material to obtain an organic semiconducting layer
A method for determining the compression level V of a node by compacting and welding electrical lines (200, 202) inserted into a compression chamber of an ultrasonic welding system, which compression chamber can be adjusted in height (h) and width (b), these electrical lines have a known total nominal cross section A nom and consist of wires (204, 206) with an actual total cross section A act, wherein the compression chamber is limited at least by a sonotrode, a counterelectrode or an anvil (22, 28) and a lateral glider having a delimiting surface, comprising the steps: - Placind the lines (200, 202) into the compression chamber, - Compacting the lines, - Determining the cross section of compaction A of the compacted lines, characterized by the method steps: - Determining the actual cross section A act with a correlation function that takes into account the compacting cross section A, with A act = A: K, in which K is the correction value determined from the correlation function as a function of the nominal cross section, - Welding the compacted node with a set of welding parameters, taking as base the total nominal cross section A nom or the actual total cross section A act, - Determining a welding dimension from the height (h) and width (b) of the compression chamber after the welding, - Calculating the compression level taking as base the actual cross section A act and the welding dimension and calculation of the compression level V based on the formulas: a) V = [A act / b • (h - PK)] • 100 in % b) V = [b • h / A act] • 100 in %, wherein PK is a magnitude, that take into amount the geometry or profiling of the delimiting surfaces (12, 18) of the sonotrode and the counterelectrode (22, 28). - Placind the lines (200, 202) into the compression chamber, - Compacting the lines, - Determining the cross section of compaction A of the compacted lines, characterized by the method steps: - Determining the actual cross section A act with a correlation function that takes into account the compacting cross section A, with A act = A: K, in which K is the correction value determined from the correlation function as a function of the nominal cross section, - Welding the compacted node with a set of welding parameters, taking as base the total nominal cross section A nom or the actual total cross section A act, - Determining a welding dimension from the height (h) and width (b) of the compression chamber after the welding, - Calculating the compression level taking as base the actual cross section A act and the welding dimension and calculation of the compression level V based on the formulas: a) V = [A act / b • (h - PK)] • 100 in % b) V = [b • h / A act] • 100 in %, wherein PK is a magnitude, that take into amount the geometry or profiling of the delimiting surfaces (12, 18) of the sonotrode and the counterelectrode (22, 28). a) V = [A act / b • (h - PK)] • 100 in % b) V = [b • h / A act] • 100 in %,
A padlock having a lock body and a shackle having two shanks (6, 8) which each have a groove for the reception of a respective part region of a locking element, wherein - a pin which can be acted on by a lock cylinder core to make a rotational movement is provided for the movement of the locking elements into their locked position; - the pin, which is in particular biased into its locked position by a spring, has at least one engagement element (28, 28') for cooperation with at least one entrainer (54, 54') of the lock cylinder core, wherein a blocking plate provided between the pin and the lock cylinder core is fastened in the lock body and has an opening through which the entrainer (54, 54') of the lock cylinder core projects into the plane of the engagement element (28, 28') with an assembled padlock, with the opening being designed such that, on the one hand, a rotational movement of the lock cylinder core is possible and, on the other hand, a marginal region of the opening forms an abutment (62, 64) for the entrainer (54, 54') restricting the rotational movement of the lock cylinder core, characterized in that the lock cylinder has first and second entrainers (54, 54') which are arranged off-center on the end face of the lock cylinder core facing the pin. - a pin which can be acted on by a lock cylinder core to make a rotational movement is provided for the movement of the locking elements into their locked position; - the pin, which is in particular biased into its locked position by a spring, has at least one engagement element (28, 28') for cooperation with at least one entrainer (54, 54') of the lock cylinder core,
Device for mounting a plurality of wiring harness components on a counterpart, wherein, on the counterpart, a predetermined fastening point is provided for each of the wiring harness components, at which the relevant wiring harness component is to be mounted, wherein the device has at least one mounting template which has a receiving formation for each of the wiring harness components for fastening the relevant wiring harness component to the mounting template in a form-fitting, force-locking and/or integrally bonded manner, wherein an arrangement of the receiving formations of the mounting template relative to one another corresponds to an arrangement of the fastening points of the counterpart relative to one another, characterized in that the mounting template has at least one predetermined breaking point and wherein the at least one predetermined breaking point is formed and positioned on the mounting template in such a way that the form-fitting, force-locking and/or integrally bonded fastening of at least one of the wiring harness components to the mounting template can be destroyed by breaking or tearing open the mounting template at the at least one predetermined breaking point. characterized in that the mounting template has at least one predetermined breaking point and wherein the at least one predetermined breaking point is formed and positioned on the mounting template in such a way that the form-fitting, force-locking and/or integrally bonded fastening of at least one of the wiring harness components to the mounting template can be destroyed by breaking or tearing open the mounting template at the at least one predetermined breaking point.
An electrochemical measurement method for electrochemically measuring a chemical substance generated or consumed in a biological sample in a solution, wherein the biological sample, which has diameter dimension between 100 μm, inclusive, and 600 μm, inclusive, comprises cells, cell aggregates, pieces of tissue, or non-biological samples containing biologically-relevant substances, by using a working electrode that has a diameter dimension d el less than or equal to 80 μm and supplies or receives electrons to or from the chemical substance to cause an oxidation-reduction reaction, provided that the biological sample excludes human embryos and fertilized human egg cells, wherein a spacer is placed in the solution, the spacer having a profile surface at a distance h 1 in the direction perpendicular to the electrode surface, the distance h 1 satisfying h 1 = 21.8 d el + 0.8 d el + 9.7 ± 5 μm the spacer preventing the biological sample from entering a region on the electrode surface side of the profile surface and allowing a dissolved substance to diffuse in the solution; and measurement is performed while the biological sample is positioned along the profile surface of the spacer. wherein a spacer is placed in the solution, the spacer having a profile surface at a distance h 1 in the direction perpendicular to the electrode surface, the distance h 1 satisfying h 1 = 21.8 d el + 0.8 d el + 9.7 ± 5 μm the spacer preventing the biological sample from entering a region on the electrode surface side of the profile surface and allowing a dissolved substance to diffuse in the solution; and measurement is performed while the biological sample is positioned along the profile surface of the spacer.
An oral care composition comprising an alkoxylated alcohol based nonionic surfactant, a pigment having a hue angle, h, in the CIELAB system of from 220 to 320 degrees and a water soluble, polymeric deposition aid.
Moulded electric-welding pipe connection component, in particular electric-welding nipple for connecting preferably at least two pipelines or pipeline end sections, preferably pre-insulated plastic pipelines or plastic pipeline end sections, comprising a coupling body of plastic, preferably cylindrically formed, at least one heating wire winding, the heating wire winding being arranged on the outer lateral surface of the coupling body, the heating wire winding forming the welding zones and the heating wire winding being arranged in such a way that a cold zone is arranged on each of the two sides of the heating wire winding or the welding zone, characterized in that a welding indicator is arranged in the region of the cold zone, the welding indicator being formed as an indicating pin.
An electrode assembly of a vacuum interrupter, comprising: an electrical contact (501, 502); a coil conductor (705, 706) comprising a longitudinal axis that extends substantially perpendicular to a diameter of the coil conductor (705, 706); and a contact backing (703, 704) disposed between the electrical contact (501, 502) and the coil conductor (705, 706), the contact backing (703, 704) comprising a portion that extends away from the electrical contact in an axial direction outside the diameter of the coil conductor (705, 706) such that the portion of the contact backing (703, 704) surrounds at least a longitudinal portion of the coil conductor (705, 706), the axial direction being substantially parallel to the longitudinal axis of the coil conductor (705, 706), the portion of the contact backing (705, 706) defining at least a part of an outer periphery of the electrode assembly. an electrical contact (501, 502); a coil conductor (705, 706) comprising a longitudinal axis that extends substantially perpendicular to a diameter of the coil conductor (705, 706); and a contact backing (703, 704) disposed between the electrical contact (501, 502) and the coil conductor (705, 706), the contact backing (703, 704) comprising a portion that extends away from the electrical contact in an axial direction outside the diameter of the coil conductor (705, 706) such that the portion of the contact backing (703, 704) surrounds at least a longitudinal portion of the coil conductor (705, 706), the axial direction being substantially parallel to the longitudinal axis of the coil conductor (705, 706), the portion of the contact backing (705, 706) defining at least a part of an outer periphery of the electrode assembly.
A lead-free solder alloy, comprising: from 35 to 59 %wt Bi; from 0.003 to 0.5 %wt Co; from 0.05 to 1.0 %wt Cu; from 0 to 1.0 wt% Ag, and the balance Sn, together with any unavoidable impurities being not more than 1.0 %wt. from 35 to 59 %wt Bi; from 0.003 to 0.5 %wt Co; from 0.05 to 1.0 %wt Cu; from 0 to 1.0 wt% Ag,
A diagnostic method for determining lung disease comprising: obtaining a plurality of spectra produced by infrared spectroscopic interrogations of a plurality of cells obtained from a subject, with each spectrum obtained from a different cell; determining a feature of interest from each infrared spectrum of the plurality of spectra; determining a distribution of the features of interest; and diagnosing a lung disease in dependence on the distribution of features of interest. obtaining a plurality of spectra produced by infrared spectroscopic interrogations of a plurality of cells obtained from a subject, with each spectrum obtained from a different cell; determining a feature of interest from each infrared spectrum of the plurality of spectra; determining a distribution of the features of interest; and diagnosing a lung disease in dependence on the distribution of features of interest.
A method of representing a virtual object in a view of a real environment, comprising: - providing image information of a first image of at least part of a human face in a real environment captured by a first camera, - determining a face region in the first image, - determining at least one first light falling on the face according to depth information associated with the face region of the first image and the at least one human face characteristic comprising a premodeled radiance transfer function for the face region, wherein the premodeled radiance transfer function indicates how the region of the face responds to light, - determining a non-face region in the first image, - determining at least one second light according to the non-face region, - combining the at least one second light into the first light; and - blending in a virtual object on a display device in the view of the at least part of the real environment according to the at least one first light. - providing image information of a first image of at least part of a human face in a real environment captured by a first camera, - determining a face region in the first image, - determining at least one first light falling on the face according to depth information associated with the face region of the first image and the at least one human face characteristic comprising a premodeled radiance transfer function for the face region, wherein the premodeled radiance transfer function indicates how the region of the face responds to light, - determining a non-face region in the first image, - determining at least one second light according to the non-face region, - combining the at least one second light into the first light; and - blending in a virtual object on a display device in the view of the at least part of the real environment according to the at least one first light.
A gripping and carrying device for moving a container having a longitudinal axis (A L) and a transversal axis (A T) characterized in that said device comprises a substantially L-shaped frame extending along the longitudinal axis (A L) and configured to be connected onto a mobile crane, said frame having a distal end and a proximal end provided with a grabbing and gripping deck having: - grab handles rotationally mounted onto said deck, said grab handles being mobile between a first position and a second position, - gripping means translationally mounted onto said deck, mobile between a releasing position wherein the gripping means are disengaged from the container and a gripping position wherein the gripping means are configured to engage into the container, the grab handles and the gripping means being operatively connected within said deck so that a rotation of the grab handles from the first position to the second position causes a translation of the gripping means from the releasing position to the gripping position, characterized in that the distal end of the frame is provided with at least one hooking mean configured to engage onto at least one complementary hooking means provided on the container. - grab handles rotationally mounted onto said deck, said grab handles being mobile between a first position and a second position, - gripping means translationally mounted onto said deck, mobile between a releasing position wherein the gripping means are disengaged from the container and a gripping position wherein the gripping means are configured to engage into the container, the grab handles and the gripping means being operatively connected within said deck so that a rotation of the grab handles from the first position to the second position causes a translation of the gripping means from the releasing position to the gripping position, characterized in that the distal end of the frame is provided with at least one hooking mean configured to engage onto at least one complementary hooking means provided on the container.