mhurhangee/ep-ind-claims huggingface dataset:
An optical system for use in an automobile comprising: - a plurality of laser diodes (20, L1, L2, L3) with each of the laser diodes outputting different wavelengths, - a support device retaining the plurality of laser diodes (20, L1, L2, L3) in a series of end-to-end substantially abutting relationships, each of the plurality of laser diodes (20, L1, L2, L3) having front and back coated facets wherein one of the plurality of laser diodes (20, L1, L2, L3) outputs a plurality of laser beams, wherein each of the plurality of laser beams respectively corresponds to each of the plurality of laser diodes (20, L1, L2, L3), and wherein each of the laser beams proceeds from the one laser diode (20, L1, L2, L3) in a single optical axis, - a scanning device and - an optical fiber for receiving an optical fiber input and outputting a fiber output to the scanning device, wherein the laser diode output beams provide the optical fiber input. - a plurality of laser diodes (20, L1, L2, L3) with each of the laser diodes outputting different wavelengths, - a support device retaining the plurality of laser diodes (20, L1, L2, L3) in a series of end-to-end substantially abutting relationships, each of the plurality of laser diodes (20, L1, L2, L3) having front and back coated facets wherein one of the plurality of laser diodes (20, L1, L2, L3) outputs a plurality of laser beams, wherein each of the plurality of laser beams respectively corresponds to each of the plurality of laser diodes (20, L1, L2, L3), and wherein each of the laser beams proceeds from the one laser diode (20, L1, L2, L3) in a single optical axis, - a scanning device and - an optical fiber for receiving an optical fiber input and outputting a fiber output to the scanning device,
Method for producing an integrated magnetic device with variable inductance, comprising at least the implementation of the following steps: a) making of a piezoelectric element on a first substrate such that a second face of the piezoelectric element is arranged on the side of the first substrate; b) making of a first electrically conductive element on the side of a first face, opposite the second face, of the piezoelectric element, and fastening of the ends of the piezoelectric element to a second substrate (122, 152) such that the first face of the piezoelectric element is arranged facing a first cavity (124, 156) formed between a portion of the second substrate (122, 152) and the piezoelectric element, the first electrically conductive element being arranged in and/or against the second substrate or against the piezoelectric element; c) removing of at least one portion of the first substrate; d) making of a second electrically conductive element on the side of the second face of the piezoelectric element; and further comprising the making of an electrical and/or magnetic coupling of the first and second electrically conductive elements (116, 118), and the making of at least one magnetic element (110, 112, 128) arranged against and/or in the piezoelectric element and between the first and second electrically conductive elements (116, 118). a) making of a piezoelectric element on a first substrate such that a second face of the piezoelectric element is arranged on the side of the first substrate; b) making of a first electrically conductive element on the side of a first face, opposite the second face, of the piezoelectric element, and fastening of the ends of the piezoelectric element to a second substrate (122, 152) such that the first face of the piezoelectric element is arranged facing a first cavity (124, 156) formed between a portion of the second substrate (122, 152) and the piezoelectric element, the first electrically conductive element being arranged in and/or against the second substrate or against the piezoelectric element; c) removing of at least one portion of the first substrate; d) making of a second electrically conductive element on the side of the second face of the piezoelectric element;
A transportation mechanism for a mobile robot, comprising: a main body; and at least one primary wheel, and at least one wheel assembly moveably mounted to the main body and comprising a frame having a secondary wheel mounted to one end of the frame, and at least one drive wheel assembly between the primary wheel and the wheel assembly, each drive wheel assembly comprising a drive wheel and a drive frame, the drive frame being pivotally mounted to the main body for rotation about an axis, and the wheel assembly and the drive wheel assembly being coupled by a linkage member such that movement of the wheel assembly can cause movement of the drive wheel assembly and vice versa; characterised in that; the primary wheel is a front wheel and said wheel assembly is a rear wheel assembly, and in that a first end of the linkage member is secured to the drive frame and an opposite end of the linkage member is detached from, but disposed proximate to, an end portion of the rear frame such that the linkage member pushes against the rear frame, or the rear frame pushes against the linkage member, depending on the direction of rotation of the drive frame about said axis and movement of the rear wheel relative to the body frame respectively, said opposite end of the linkage member also being separable from the rear frame, depending on the position of the drive frame, such that the driving wheel and rear wheel can move independently relative to the body frame. a main body; and at least one primary wheel, and at least one wheel assembly moveably mounted to the main body and comprising a frame having a secondary wheel mounted to one end of the frame, and at least one drive wheel assembly between the primary wheel and the wheel assembly, each drive wheel assembly comprising a drive wheel and a drive frame, the drive frame being pivotally mounted to the main body for rotation about an axis, and the wheel assembly and the drive wheel assembly being coupled by a linkage member such that movement of the wheel assembly can cause movement of the drive wheel assembly and vice versa; characterised in that; the primary wheel is a front wheel and said wheel assembly is a rear wheel assembly, and in that a first end of the linkage member is secured to the drive frame and an opposite end of the linkage member is detached from, but disposed proximate to, an end portion of the rear frame such that the linkage member pushes against the rear frame, or the rear frame pushes against the linkage member, depending on the direction of rotation of the drive frame about said axis and movement of the rear wheel relative to the body frame respectively, said opposite end of the linkage member also being separable from the rear frame, depending on the position of the drive frame, such that the driving wheel and rear wheel can move independently relative to the body frame.
Process for producing SiOC-bonded polyether siloxanes branched in the siloxane portion from cyclic branched siloxanes of the D/T type, characterized in that it comprises in a first step reacting cyclic branched siloxanes of the D/T type with acetic anhydride optionally in admixture with simple siloxane cycles and/or hydroxy-bearing siloxanes and/or acetoxy- and/or alkoxy-bearing silanes and/or siloxanes under acid catalysis to afford acetoxy-bearing branched siloxanes and in a second step performing the equilibration of the acetoxy-modified branched siloxane with acids, preferably superacids, in particular with addition of acetic acid and in a third step reacting the acid-treated, preferably superacid-treated, acetoxysiloxane with polyetherols optionally in the presence of bases and optionally in the presence of an inert solvent, wherein the cyclic branched siloxanes of the D/T type are mixtures of cyclic branched siloxanes of the D/T type which contain not only siloxanes comprising D and T units but also siloxanes comprising Q units with the proviso that in these mixtures the proportion of Si atoms derived from Q units is ≤ 10% by mass to ≥ 0% by mass, preferably ≤ 5% by mass to ≥ 0% by mass, based on the entirety of all Si atoms. in a first step reacting cyclic branched siloxanes of the D/T type with acetic anhydride optionally in admixture with simple siloxane cycles and/or hydroxy-bearing siloxanes and/or acetoxy- and/or alkoxy-bearing silanes and/or siloxanes under acid catalysis to afford acetoxy-bearing branched siloxanes and in a second step performing the equilibration of the acetoxy-modified branched siloxane with acids, preferably superacids, in particular with addition of acetic acid and in a third step reacting the acid-treated, preferably superacid-treated, acetoxysiloxane with polyetherols optionally in the presence of bases and optionally in the presence of an inert solvent, wherein the cyclic branched siloxanes of the D/T type are mixtures of cyclic branched siloxanes of the D/T type which contain not only siloxanes comprising D and T units but also siloxanes comprising Q units with the proviso that in these mixtures the proportion of Si atoms derived from Q units is ≤ 10% by mass to ≥ 0% by mass, preferably ≤ 5% by mass to ≥ 0% by mass, based on the entirety of all Si atoms.
A separator for separating a liquid from a solid, said separator comprising: a housing with a longitudinal central axis, said housing having a top and a bottom; an inlet for a mixture of said liquid and solid at the top of the housing; a solid outlet arranged at the bottom of the housing; a liquid outlet arranged at the bottom of the housing; a screen plate, arranged within said housing, said screen plate dividing the interior of the housing into a solid collecting chamber and a liquid collecting chamber, said inlet running into said solid collecting chamber and said solid outlet running out from said solid collecting chamber, and said liquid outlet running out from said liquid collecting chamber; characterised in that said screen plate is a conical screen plate, which is suspended in said housing, on a rotatable shaft in its upper end through upper struts or a stay plate, such that the conical screen plate is rotatable around a longitudinal axis. a housing with a longitudinal central axis, said housing having a top and a bottom; an inlet for a mixture of said liquid and solid at the top of the housing; a solid outlet arranged at the bottom of the housing; a liquid outlet arranged at the bottom of the housing; a screen plate, arranged within said housing, said screen plate dividing the interior of the housing into a solid collecting chamber and a liquid collecting chamber, said inlet running into said solid collecting chamber and said solid outlet running out from said solid collecting chamber, and said liquid outlet running out from said liquid collecting chamber; characterised in that said screen plate is a conical screen plate, which is suspended in said housing, on a rotatable shaft in its upper end through upper struts or a stay plate, such that the conical screen plate is rotatable around a longitudinal axis.
A structural fitting, comprising: a spherical bearing comprising a conduit aperture configured to receive a fluid conduit traversing the spherical bearing; and a bearing housing configured to retain the spherical bearing within the bearing housing, to allow for rotation of the spherical bearing within the bearing housing, and to be fixedly coupled to a structure, wherein the spherical bearing further comprises a front bearing and a rear bearing, wherein the front bearing and the rear bearing are configured to: abut one another to create an assembled bearing configuration having the conduit aperture, wherein at least one of the front bearing and the rear bearing is configured to engage an assembled coupling flange, which couples front and rear portions of the fluid conduit within the conduit aperture such that the assembled bearing configuration secures the fluid conduit within the spherical bearing. a spherical bearing comprising a conduit aperture configured to receive a fluid conduit traversing the spherical bearing; and a bearing housing configured to retain the spherical bearing within the bearing housing, to allow for rotation of the spherical bearing within the bearing housing, and to be fixedly coupled to a structure, wherein the spherical bearing further comprises a front bearing and a rear bearing, wherein the front bearing and the rear bearing are configured to: abut one another to create an assembled bearing configuration having the conduit aperture, wherein at least one of the front bearing and the rear bearing is configured to engage an assembled coupling flange, which couples front and rear portions of the fluid conduit within the conduit aperture such that the assembled bearing configuration secures the fluid conduit within the spherical bearing. abut one another to create an assembled bearing configuration having the conduit aperture, wherein at least one of the front bearing and the rear bearing is configured to engage an assembled coupling flange, which couples front and rear portions of the fluid conduit within the conduit aperture such that the assembled bearing configuration secures the fluid conduit within the spherical bearing.
A method for producing a dye for keratin fibers from a first composition A and a second composition B, in which - a partial quantity a of the first composition A is guided out of a container A - by means of a filling device - through an inlet opening - into a container B containing the second composition B, characterized in that - at least one outlet opening is formed in the container B from which the dye for keratin fibers leaves the container B as a mixture of compositions A and B as a result of the increasing pressure in the container B due to the introduction of composition A and/or as a result of the pressure in the container B due to the penetration of a container wall because of the action of the filling device, - over the course of the method, the composition B in the container B is discharged from the container B through the outlet opening by means of the introduced composition A and - a remaining quantity of composition A in the container A remains in the container A until the end of the mixing process, and this remaining quantity corresponds to at least double the partial quantity a. - a partial quantity a of the first composition A is guided out of a container A - by means of a filling device - through an inlet opening - into a container B containing the second composition B, characterized in that - at least one outlet opening is formed in the container B from which the dye for keratin fibers leaves the container B as a mixture of compositions A and B as a result of the increasing pressure in the container B due to the introduction of composition A and/or as a result of the pressure in the container B due to the penetration of a container wall because of the action of the filling device, - over the course of the method, the composition B in the container B is discharged from the container B through the outlet opening by means of the introduced composition A and - a remaining quantity of composition A in the container A remains in the container A until the end of the mixing process, and this remaining quantity corresponds to at least double the partial quantity a.
A Brillouin distributed fiber sensor system, comprising: at least one pump laser (116,116b) configured to launch pump test light into the optical fiber; an optical fiber (10,110) having a first core (20,120), a second core (30,130) and a cladding surrounding the cores; and a receiver element configured to receive a Brillouin scattered component of said pump test light from each of said cores and evaluate the Brillouin frequency shift of each of said cores based at least in part on the received test light; characterised in that each of said cores is configured to exhibit a Brillouin frequency shift of at least 30 Mhz relative to the other core. at least one pump laser (116,116b) configured to launch pump test light into the optical fiber; an optical fiber (10,110) having a first core (20,120), a second core (30,130) and a cladding surrounding the cores; and a receiver element configured to receive a Brillouin scattered component of said pump test light from each of said cores and evaluate the Brillouin frequency shift of each of said cores based at least in part on the received test light; characterised in that each of said cores is configured to exhibit a Brillouin frequency shift of at least 30 Mhz relative to the other core.
A method of providing an event notification to a telephony control point in a home network environment, comprising the steps of: receiving an event associated with a remote device by a telephony server; acquiring information associated with the remote device by the telephony server in response to receiving the event, the information being stored in the telephony server; generating an event notification associated with the event, the event notification comprising the information associated with the remote device; and transmitting the event notification to at least one telephony control point in the home network environment. receiving an event associated with a remote device by a telephony server; acquiring information associated with the remote device by the telephony server in response to receiving the event, the information being stored in the telephony server; generating an event notification associated with the event, the event notification comprising the information associated with the remote device; and transmitting the event notification to at least one telephony control point in the home network environment.
A method for recycling and treating a waste battery, including the following steps: preparing the waste battery, and additionally preparing a slagging agent at least containing 10 wt.% of Si and/or Mn; and adding the above prepared various materials to a smelting furnace so as to generate a Co and/or Ni containing alloy, a Mn-containing slag, and dust; and controlling an oxygen partial pressure, a smelting temperature and a duration time in the smelting furnace, such that the generated Mn-containing slag contains ≥ 15 wt.% of Mn, ≤ 5 wt.% of Fe, and ≤ 30 wt.% of Al 2 O 3, and 0.2 ≤ Mn/SiO 2 ≤ 3.0. preparing the waste battery, and additionally preparing a slagging agent at least containing 10 wt.% of Si and/or Mn; and adding the above prepared various materials to a smelting furnace so as to generate a Co and/or Ni containing alloy, a Mn-containing slag, and dust; and controlling an oxygen partial pressure, a smelting temperature and a duration time in the smelting furnace, such that the generated Mn-containing slag contains ≥ 15 wt.% of Mn, ≤ 5 wt.% of Fe, and ≤ 30 wt.% of Al 2 O 3, and 0.2 ≤ Mn/SiO 2 ≤ 3.0.
A power supply system, comprising: an input stage converting circuit; a first energy storage component with a first terminal and a second terminal electrically coupled to the input stage converting circuit; a second energy storage component with a first terminal and a second terminal; and an output stage converting circuit electrically coupled to the first energy storage component and the second energy storage component, wherein the output stage converting circuit converts the charging electricity into an output electricity and provides the output electricity to a load; wherein the input stage converting circuit has a first electric power, the output stage converting circuit has a second electric power greater than the first electric power, characterized in that wherein the first energy storage component and the second energy storage component are electrically isolated, and the first energy storage component or the second energy storage component are configured to be charged by the input stage converting circuit; and wherein the output stage converting circuit comprises: a first input terminal electrically coupled to the first terminal of the first energy storage component; a second input terminal electrically coupled to the second terminal of the first energy storage component; a first output terminal electrically coupled to one terminal of the load; and a second output terminal electrically coupled to the first terminal of the second energy storage component, wherein the second terminal of the second energy storage component is electrically coupled to the other terminal of the load; wherein the output stage converting circuit and the second energy storage component simultaneously charge the load; wherein the second electric power of the output stage converting circuit is less than the required power of the load. an input stage converting circuit; a first energy storage component with a first terminal and a second terminal electrically coupled to the input stage converting circuit; a second energy storage component with a first terminal and a second terminal; and an output stage converting circuit electrically coupled to the first energy storage component and the second energy storage component, wherein the output stage converting circuit converts the charging electricity into an output electricity and provides the output electricity to a load; a first input terminal electrically coupled to the first terminal of the first energy storage component; a second input terminal electrically coupled to the second terminal of the first energy storage component; a first output terminal electrically coupled to one terminal of the load; and a second output terminal electrically coupled to the first terminal of the second energy storage component, wherein the second terminal of the second energy storage component is electrically coupled to the other terminal of the load;
A method, in a wireless device operating in a wireless network, for handling transitions from Radio Resource Control, RRC, connected state to an RRC inactive state, the method comprising: receiving, from the wireless network, a message indicating that the wireless device is to enter the RRC inactive state; and characterized in that responsive to the message, using, for inactive state operation, at least one previously stored inactive state parameter corresponding to a parameter omitted from the message, wherein the previously stored inactive state parameter is an RNA update configuration parameter. receiving, from the wireless network, a message indicating that the wireless device is to enter the RRC inactive state; and characterized in that responsive to the message, using, for inactive state operation, at least one previously stored inactive state parameter corresponding to a parameter omitted from the message, wherein the previously stored inactive state parameter is an RNA update configuration parameter.