mhurhangee/patent-ind-claim-en huggingface dataset:
A laser printing system for illuminating an object moving relative to a laser module of the laser printing system in a working plane , the laser module comprising at least two laser arrays of semiconductor lasers and at least one optical element , wherein the optical element is adapted to image laser light emitted by the laser arrays , such that laser light of semiconductor lasers of one laser array is imaged to one pixel in the working plane of the laser printing system , and wherein the laser printing system is a 3D printing system for additive manufacturing and wherein two, three, four or a multitude of laser modules are provided, which are arranged in columns perpendicular to a direction of movement of the object in the working plane , and wherein the columns are staggered with respect to each other such that a first laser module of a first column of laser modules is adapted to illuminate a first area of the object and a second laser module of a second column of laser modules is adapted to illuminate a second area of the object, wherein the first area is adjacent to the second area such that continuous illumination of the object is enabled.
Stick holder for a walking stick, comprising two cooperating clamping elements , which are linearly displaceable relative to each other, and wherein the first clamping element is configured to be able to be fixedly attached in the length against the walking stick by means of a fastening part , wherein furthermore biasing means are provided, which are configured to exert a biasing force on the clamping elements, driving them towards each other, wherein the biasing means comprise a constant-force spring of rolled-up resilient ribbon material, of which the rolled-up portion is mounted in the first clamping element , and wherein the linearly-extendable free outer end of the spring is connected to the second clamping element , wherein the first clamping element comprises a housing for at least partly including the rolled-up portion of the constant-force spring, wherein the rolled-up portion is mounted in the first clamping element that is configured to be able to be fixedly attached onto the walking stick, characterized, in that the constant-force spring is a resilient ribbon material rolled-up around a reel , wherein the rolled-up portion of the ribbon material is mounted in the first clamping element by bearing mounting the axis of the reel rotatably in the housing of the first clamping element .
A thermosensitive recording body, comprising at least a thermosensitive recording layer and a topcoat layer formed on a substrate, the substrate consisting of a transparent film, wherein the thermosensitive recording body further comprises an intermediate layer between the thermosensitive recording layer and the topcoat layer, wherein at least the thermosensitive recording layer, the topcoat layer and the intermediate layer include a component configured for suppressing diffuse reflection of light from particles constituting each of the thermosensitive recording layer, the topcoat layer and the intermediate layer, wherein the thermosensitive recording body has an opacity less than or equal to 10% pursuant to JIS: P8138, wherein the thermosensitive recording layer includes a low-melting paraffin as the component, the low-melting paraffin having a melting point lower than or equal to a color developing temperature, wherein the intermediate layer includes a resin containing a water-soluble portion as the component, characterized in that the thermosensitive recording body, exclusive of the substrate, has a thickness greater than or equal to 1.0 μm and less than or equal to 10 μm, and the thermosensitive recording layer is formed by a process in which the melted paraffin penetrates into and fills gaps of irregular surfaces of the thermosensitive recording layer, and the intermediate layer is formed by a process in which the resin sinks into the thermosensitive recording layer, allowing the intermediate layer to be formed in smoothness.
Mounting aid tool for mounting a protective net having a plurality of mesh openings into a touch-and-close or mushroom-head tape having a plurality of hooking elements which extend from a carrier tape, wherein each hooking element has at its free end a hooking geometry which can engage in mesh openings of the protective net in a fastening manner, wherein the mounting aid tool comprises a handle and at least one applicator head , the respective applicator head has a base plate , which is connected to the handle , and a plurality of rectilinear webs , the base plate has a first main surface , which is to face the protective net, and a rear second main surface which end at a free front edge of the base plate , and the webs in their longitudinal direction (L) along the first main surface run parallel to one another at a predetermined distance from one another and in their vertical direction extend away from the first main surface , wherein the parallel running webs in their longitudinal direction (L) project by a predetermined excess length beyond the front edge of the base plate . the mounting aid tool comprises a handle and at least one applicator head , the respective applicator head has a base plate , which is connected to the handle , and a plurality of rectilinear webs , the base plate has a first main surface , which is to face the protective net, and a rear second main surface which end at a free front edge of the base plate , and the webs in their longitudinal direction (L) along the first main surface run parallel to one another at a predetermined distance from one another and in their vertical direction extend away from the first main surface , wherein the parallel running webs in their longitudinal direction (L) project by a predetermined excess length beyond the front edge of the base plate .
A resettable injection training device, comprising: a housing , comprising a proximal end and a distal end , the housing defining a cavity ; a plunger slidable relative to the housing between the proximal end and the distal end ; a releasably locking shield comprising a proximal end and a distal end , the shield being slidably engaged with the housing and movable between a retracted, pre-use position and an extended, post-use position; a flat biasing member for locking the shield in the extended, post-use position; a compressing component , said compressing component slidable relative to the housing ; wherein pressure on the flat biasing member from the compressing component deforms the flat biasing member , unlocking the shield , and wherein a release of contact between the compressing component and the flat biasing member locks the shield in an extended, post-use position. a housing , comprising a proximal end and a distal end , the housing defining a cavity ; a plunger slidable relative to the housing between the proximal end and the distal end ; a releasably locking shield comprising a proximal end and a distal end , the shield being slidably engaged with the housing and movable between a retracted, pre-use position and an extended, post-use position; a flat biasing member for locking the shield in the extended, post-use position; a compressing component , said compressing component slidable relative to the housing ; wherein pressure on the flat biasing member from the compressing component deforms the flat biasing member , unlocking the shield , and wherein a release of contact between the compressing component and the flat biasing member locks the shield in an extended, post-use position.
A controller for controlling at least a first lighting device and a second lighting device , the controller comprising: a communication unit for communicating with the first and second lighting device, a user interface for receiving a user input, a display unit , a processor for rendering, on the display unit , a graphical representation of a first color spectrum , a first type of graphical representation of the first lighting device in the first color spectrum at a first position in the user interface , a second type of graphical representation of the second lighting device in the first color spectrum at a second position in the user interface, wherein the first type of graphical representation is indicative for the first lighting device being arranged to be technically capable of generating light matching a color of the first color spectrum associated with the first position in the user interface, wherein the processor is further arranged for controlling, upon receiving a first user input for controlling the first lighting device via the user interface, via the communication unit, the color of the first lighting device according to the first user input, wherein the first user input selects the desired color to be generated by the first lighting device according to the position of the first type of graphical representation in the first color spectrum , and wherein the second type of graphical representation is indicative for the second lighting device not being arranged to be technically capable of generating light matching a color of the first color spectrum associated with the second position in the user interface a communication unit for communicating with the first and second lighting device, a user interface for receiving a user input, a display unit , a processor for rendering, on the display unit , a graphical representation of a first color spectrum , a first type of graphical representation of the first lighting device in the first color spectrum at a first position in the user interface , a second type of graphical representation of the second lighting device in the first color spectrum at a second position in the user interface, wherein the first type of graphical representation is indicative for the first lighting device being arranged to be technically capable of generating light matching a color of the first color spectrum associated with the first position in the user interface, wherein the processor is further arranged for controlling, upon receiving a first user input for controlling the first lighting device via the user interface, via the communication unit, the color of the first lighting device according to the first user input, wherein the first user input selects the desired color to be generated by the first lighting device according to the position of the first type of graphical representation in the first color spectrum , and wherein the second type of graphical representation is indicative for the second lighting device not being arranged to be technically capable of generating light matching a color of the first color spectrum associated with the second position in the user interface
System for transmitting data through an optical network comprising a plurality of optical nodes, which comprises: - a plurality of source nodes (1-1, 1-2, 1-3, 1-4, 1-5), a source node being able to generate, in a spectral band that is associated therewith, an OFDM multi-carrier optical data signal obtained by modulating a source signal at a source wavelength, and to transmit said OFDM multi-carrier optical data signal in the form of single-band data bursts (11-13, 21-23, 31-33, 41-43, 51-53) able to be associated with distinct source wavelengths, characterized in that it also comprises: - at least one unit for controlling a time of transmission of said single-band data bursts by said source nodes, employing a control plan taking into account a path time of said single-band data bursts transmitted by said source nodes to a combining module, so that said single-band data bursts reach said combining module synchronously, and - a module for combining said single-band data bursts, transmitted by said source nodes in said spectral bands that are associated therewith, into multi-band data bursts (61-63) occupying a spectral band corresponding to a juxtaposition of said spectral bands associated with the source nodes. - a plurality of source nodes (1-1, 1-2, 1-3, 1-4, 1-5), a source node being able to generate, in a spectral band that is associated therewith, an OFDM multi-carrier optical data signal obtained by modulating a source signal at a source wavelength, and to transmit said OFDM multi-carrier optical data signal in the form of single-band data bursts (11-13, 21-23, 31-33, 41-43, 51-53) able to be associated with distinct source wavelengths, - at least one unit for controlling a time of transmission of said single-band data bursts by said source nodes, employing a control plan taking into account a path time of said single-band data bursts transmitted by said source nodes to a combining module, so that said single-band data bursts reach said combining module synchronously, and - a module for combining said single-band data bursts, transmitted by said source nodes in said spectral bands that are associated therewith, into multi-band data bursts (61-63) occupying a spectral band corresponding to a juxtaposition of said spectral bands associated with the source nodes.
A method comprising: obtaining a modified carbon-based thick film material that comprises a carbon-based thick film material blended with a dielectric material comprising a titanate; depositing the modified carbon-based thick film material onto a structure; curing the deposited modified carbon-based thick film material on the structure at a temperature that does not exceed about 250° C; and processing the cured deposited modified carbon-based thick film material to form a thick film resistor ; wherein an amount of the titanate blended with the carbon-based thick film material does not exceed about 15% by weight of the modified carbon-based thick film material; wherein the modified carbon-based thick film material is a modified carbon-based ink; wherein obtaining the modified carbon-based thick film material comprises blending the dielectric material comprising the titanate with a carbon-based ink to form the modified carbon-based ink; wherein depositing the modified carbon-based thick film material comprises printing; and wherein the modified carbon-based ink has a resistivity that is at least double a resistivity of the carbon-based ink. obtaining a modified carbon-based thick film material that comprises a carbon-based thick film material blended with a dielectric material comprising a titanate; depositing the modified carbon-based thick film material onto a structure; curing the deposited modified carbon-based thick film material on the structure at a temperature that does not exceed about 250° C; and processing the cured deposited modified carbon-based thick film material to form a thick film resistor ; wherein an amount of the titanate blended with the carbon-based thick film material does not exceed about 15% by weight of the modified carbon-based thick film material; wherein the modified carbon-based thick film material is a modified carbon-based ink; wherein obtaining the modified carbon-based thick film material comprises blending the dielectric material comprising the titanate with a carbon-based ink to form the modified carbon-based ink; wherein depositing the modified carbon-based thick film material comprises printing; and
A method for inhibiting hydrate formation in a fluid comprising water and a hydrocarbon gas, the method comprising contacting the fluid with an effective amount of a hydrate inhibitor composition comprising from about 10 wt.% to about 55 wt.% of a nonpolar solvent; from about 0.1 wt.% to about 15 wt.% of a polar solvent; and from about 0.1 to about 50 wt. % of a polymer, an oligomer, a dendrimer, or an acid or salt thereof, wherein the polymer, oligomer, or dendrimer is a kinetic hydrate inhibiting polymer, oligomer, or dendrimer; wherein the nonpolar solvent is selected from an aromatic hydrocarbon solvent, an aliphatic hydrocarbon solvent, a cycloaliphatic hydrocarbon solvent, or a combination thereof, and wherein the polar solvent is selected from an alcohol having a molecular weight less than 300 Daltons. wherein the nonpolar solvent is selected from an aromatic hydrocarbon solvent, an aliphatic hydrocarbon solvent, a cycloaliphatic hydrocarbon solvent, or a combination thereof, and wherein the polar solvent is selected from an alcohol having a molecular weight less than 300 Daltons.
A row unit for a corn header for an agricultural harvester comprising: a frame ; a first row unit arm mounted to the frame , the first row unit arm including a first elongated deck plate ; and a second row unit arm mounted to the frame , wherein the second row unit arm includes a second elongated deck plate spaced from the first deck plate , the first deck plate and the second deck plate each having a medial side defining a gap therebetween, characterized in that each of the first and second deck plates includes a plurality of structures configured to inhibit a flow of grain off the deck plate, wherein each of the plurality of structures is configured as a corrugation, a rib or a recess, positioned spaced from the medial side of the respective deck plate . a frame ; a first row unit arm mounted to the frame , the first row unit arm including a first elongated deck plate ; and a second row unit arm mounted to the frame , wherein the second row unit arm includes a second elongated deck plate spaced from the first deck plate , the first deck plate and the second deck plate each having a medial side defining a gap therebetween, characterized in that each of the first and second deck plates includes a plurality of structures configured to inhibit a flow of grain off the deck plate, wherein each of the plurality of structures is configured as a corrugation, a rib or a recess, positioned spaced from the medial side of the respective deck plate .
Device comprising a latching mechanism comprising a catch element having at least two catches , and a pawl configured to engage in a catch interstice between two catches , wherein the catch element is movable in relation to the pawl in a freewheeling direction and wherein a movement of the catch element in relation to the pawl in a blocking direction may be blocked by means of the pawl , deflectable actuation means configured to move the catch element and the pawl relative to each other on a catch-by-catch basis in the freewheeling direction by means of a deflection, and an electric component configured to change its electric property as a function of the catch-wise movement of the catch element in relation to the pawl , characterized in that the latching mechanism is arranged on a substrate and is configured as a MEMS microsystem.
Motor-vehicle lock having a latch mechanism and catch , as locking elements, wherein the motor-vehicle lock has an actuating lever , which can be pivoted about an actuating-lever axis and of which the actuation from a starting position into an actuating position makes it possible to disengage the catch , wherein the motor-vehicle lock has a crash element , which can be adjusted from a normal state into a crash state, in which the crash element blocks the actuating lever in a blocking position or uncouples it from the catch , wherein the crash element is coupled to the actuating lever such that, when the actuating lever is actuated at an actuating speed above a limit actuating speed, the crash element latches in the crash state, characterized in that, with the crash element latched in the crash state, a restoring action of the actuating lever into the starting position causes the latching action to be reversed and the crash element to be adjusted into the normal state.
A gas turbine having a compressor , in which air is compressible; a burner comprising at least one combustion chamber , to which the air compressed in the compressor is feedable and in which in the presence of the compressed air a fuel, subject to the heating of the air, is combustible; a turbine , in which the heated air is expandable; a diffuser which seen in the flow direction of the expanded air is arranged downstream of the turbine ; multiple temperature sensors , as a function of the measurement values of which a thermodynamic mean temperature or a mixed turbine outlet temperate of the expanded air is determinable; characterized in that the temperature sensors seen in the flow direction of the expanded air are arranged on a downstream side of a diffuser cover , which at an outlet end of the diffuser closes off a hollow space of the same that is positioned radially inside of a flow passage of the diffuser . a compressor , in which air is compressible; a burner comprising at least one combustion chamber , to which the air compressed in the compressor is feedable and in which in the presence of the compressed air a fuel, subject to the heating of the air, is combustible; a turbine , in which the heated air is expandable; a diffuser which seen in the flow direction of the expanded air is arranged downstream of the turbine ; multiple temperature sensors , as a function of the measurement values of which a thermodynamic mean temperature or a mixed turbine outlet temperate of the expanded air is determinable; characterized in that the temperature sensors seen in the flow direction of the expanded air are arranged on a downstream side of a diffuser cover , which at an outlet end of the diffuser closes off a hollow space of the same that is positioned radially inside of a flow passage of the diffuser .
A method of detecting a backlash which occurs by reversing a motor of a transfer system of a numerical control (NC) machine tool, the method comprising the steps of: driving the servomotor in a first direction and stopping the servomotor ; reversing the servomotor to a second direction; measuring and recording a torque variation of the servomotor ; detecting a torque peak by observing the torque variation of the servomotor ; and determining a backlash value by calculating the driven distance of the servomotor and the detection of the torque peak; wherein the measuring and recording of the torque variation of the servomotor includes stepping-transferring an output shaft of the servomotor , and measuring and recording torque of the servomotor at each position where the output shaft thereof is stepping-transferred, and the detecting of the torque peak in which the absolute value of the torque is placed at the peak by observing the torque variation of the servomotor includes detecting a peak by comparing an absolute value of torque at each position where the output shaft is stepping-transferred with an absolute value of torque at a previous position. driving the servomotor in a first direction and stopping the servomotor ; reversing the servomotor to a second direction; measuring and recording a torque variation of the servomotor ; detecting a torque peak by observing the torque variation of the servomotor ; and determining a backlash value by calculating the driven distance of the servomotor and the detection of the torque peak; wherein the measuring and recording of the torque variation of the servomotor includes stepping-transferring an output shaft of the servomotor , and measuring and recording torque of the servomotor at each position where the output shaft thereof is stepping-transferred, and the detecting of the torque peak in which the absolute value of the torque is placed at the peak by observing the torque variation of the servomotor includes detecting a peak by comparing an absolute value of torque at each position where the output shaft is stepping-transferred with an absolute value of torque at a previous position.
Switch device having at least one switch element actuated by a cam of a camshaft , characterized in that the cam is designed as a three-dimensional cam and in that the at least one switch element is arranged so as to be displaceable substantially parallel to an axis of the camshaft in order to adjust a switch point.