mhurhangee/ep-ind-claims huggingface dataset:
Transport system for conveying objects along a transport route, comprising at least one transport element, which consists of a plurality of chain links connected with one another by chain joints in an articulated manner to form a closed loop and which can be driven in a rotary manner in at least one transport direction by at least one chain sprocket (4, 5), wherein the chain links are constituted as transport pallets, which are guided at least in sections along the transport section on both sides by means of a first and second guiding device (30, 31), in which a chain joint in each case comprises at least one joint axis running between the first and second guiding device (30, 31), which is guided at a first free end with a first guiding and bearing device in the first guiding device and at a second free end with a second guiding and bearing device in the second guiding device, wherein the first and second guiding and bearing device (32, 33) each comprise at least a first and second roller (34...37), which are guided between a first and second guiding surface (30.1 and 30.2 and respectively 31.1 and 31.2) of the respective guiding device (30, 31), said guiding surfaces running opposite one another and parallel to the joint axis, wherein the first roller (34, 36) abuts on a first bearing section (30.11, 31.11) of the first guiding surface (30.1, 31.1) and the second roller (35, 37) abuts on a second bearing section (30.21, 31.21) of the second guiding surface (30.2, 31.2) the first and second rollers (34, 36; 35, 37) being guided in prestressed manner with respect to one another, wherein the first and second bearing section (30.11 and 30.21 and respectively 31.11 and 31.21) are offset with respect to one another and lie opposite one another along the joint axis, characterised in that at least one joint axis of at least one transport pallet of the transport system comprises a first and second joint axis section (GAA1, GAA2) at the first and second free end (GAS1, GAS2), wherein the first joint axis section constitutes a first axis of rotation for the respective first roller (34 and 36) and the respective second joint axis section constitutes a second axis of rotation for the respective second roller (35 and 37), and wherein the respective first axis of rotation runs offset, in particular offset in parallel, to the respective second axis of rotation.
A method of machining a core member (217; 2001), the method comprising: identifying a desired density of an expanded foam within cells of a stock core member; selectively choosing a depth of the cavity below the cells; pouring a foam mixture into the cavity and allowing the foam mixture to rise into the cells; expanding the foam mixture until the foam mixture becomes an expanded foam; machining the stock core member (217; 2001) with the expanded foam in the cells; wherein the expanded foam provides a stability to the stock core member during the machining process and the depth of the cavity is chosen to provide the desired density of the expanded foam. identifying a desired density of an expanded foam within cells of a stock core member; selectively choosing a depth of the cavity below the cells; pouring a foam mixture into the cavity and allowing the foam mixture to rise into the cells; expanding the foam mixture until the foam mixture becomes an expanded foam; machining the stock core member (217; 2001) with the expanded foam in the cells; wherein the expanded foam provides a stability to the stock core member during the machining process and the depth of the cavity is chosen to provide the desired density of the expanded foam.
A method of additively printing an extension segment on a workpiece, the method comprising: pretreating a workpiece-interface of a workpiece using an energy beam from an additive manufacturing machine, providing a pretreated workpiece-interface having received a pretreatment, the pretreatment remediating an aberrant feature of the workpiece and/or the workpiece-interface, wherein pretreating the workpiece-interface comprises melt-leveling the workpiece-interface which includes using the energy beam to generate a melt pool across at least a portion of the workpiece-interface and/or additive-leveling the workpiece-interface which includes applying powder across at least a portion of the workpiece-interface and melting or fusing the powder to at least a portion of the workpiece-interface, such as at one or more regions of the workpiece-interface having a lower elevation relative to a build plane and/or relative to one or more other regions of the workpiece-interface; and additively printing an extension segment on the pretreated workpiece-interface using the energy beam from the additive manufacturing machine. pretreating a workpiece-interface of a workpiece using an energy beam from an additive manufacturing machine, providing a pretreated workpiece-interface having received a pretreatment, the pretreatment remediating an aberrant feature of the workpiece and/or the workpiece-interface, wherein pretreating the workpiece-interface comprises melt-leveling the workpiece-interface which includes using the energy beam to generate a melt pool across at least a portion of the workpiece-interface and/or additive-leveling the workpiece-interface which includes applying powder across at least a portion of the workpiece-interface and melting or fusing the powder to at least a portion of the workpiece-interface, such as at one or more regions of the workpiece-interface having a lower elevation relative to a build plane and/or relative to one or more other regions of the workpiece-interface; and additively printing an extension segment on the pretreated workpiece-interface using the energy beam from the additive manufacturing machine.
A system for monitoring an analyte concentration in liquid comprising: a coupon comprising an absorbent body, which may be translucent or opaque such to transmit light, not transmit light, or to transmit light to a limited degree, with a window through said absorbent body wherein said liquid is maintained in said window by capillary action and surface tension; a reactant in said absorbent body wherein said reactant is capable of reacting with the designated analyte to induce a color change in proportion to the concentration of the analyte, with the reactant diffusing into said window to react with an analyte in said liquid, or with the reactant reacting with the analyte within the absorbent body itself, with the color-indicating by-product of this reaction diffusing into said window induce a color change in the contained liquid, wherein said analyte is present in said analyte concentration to form a reactant with a color wherein said color has an intensity which correlates to said analyte concentration; and a light source capable of passing light into said window wherein said light is attenuated by said color proportional to said analyte concentration to form attenuated light. a coupon comprising an absorbent body, which may be translucent or opaque such to transmit light, not transmit light, or to transmit light to a limited degree, with a window through said absorbent body wherein said liquid is maintained in said window by capillary action and surface tension; a reactant in said absorbent body wherein said reactant is capable of reacting with the designated analyte to induce a color change in proportion to the concentration of the analyte, with the reactant diffusing into said window to react with an analyte in said liquid, or with the reactant reacting with the analyte within the absorbent body itself, with the color-indicating by-product of this reaction diffusing into said window induce a color change in the contained liquid, wherein said analyte is present in said analyte concentration to form a reactant with a color wherein said color has an intensity which correlates to said analyte concentration; and a light source capable of passing light into said window wherein said light is attenuated by said color proportional to said analyte concentration to form attenuated light.
A method for producing an avian comprising genetically modified germ cells, the method comprising: (i) injecting a transfection mixture comprising a polynucleotide mixed with a transfection reagent into a blood vessel of an avian embryo, wherein (a) the polynucleotide comprises a transposon and the transfection mixture comprises a transposase or a polynucleotide encoding a transposase; or (b) the transfection mixture comprises a targeting nuclease, or a polynucleotide encoding a targeting nuclease; and whereby the polynucleotide is inserted into the genome of one or more primordial germ cells in the avian, and (ii) incubating the embryo at a temperature sufficient for the embryo to develop into a chick.. (i) injecting a transfection mixture comprising a polynucleotide mixed with a transfection reagent into a blood vessel of an avian embryo, wherein (a) the polynucleotide comprises a transposon and the transfection mixture comprises a transposase or a polynucleotide encoding a transposase; or (b) the transfection mixture comprises a targeting nuclease, or a polynucleotide encoding a targeting nuclease; and whereby the polynucleotide is inserted into the genome of one or more primordial germ cells in the avian, and (a) the polynucleotide comprises a transposon and the transfection mixture comprises a transposase or a polynucleotide encoding a transposase; or (b) the transfection mixture comprises a targeting nuclease, or a polynucleotide encoding a targeting nuclease; and (ii) incubating the embryo at a temperature sufficient for the embryo to develop into a chick..
A portable apparatus comprising: a communication interface for communicating with a wireless network; a photo sensor for receiving non-invasive biometric information of a user; a light source; at least one processor; and at least one memory including computer program code; the at least one memory and the computer program code configured to, with the at least one processor, cause the portable apparatus to: transmit a light beam using the light source; receive noisy biometric information using the photo sensor, wherein the received noisy biometric information comprises a reflection of the transmitted light beam; filter the noisy biometric information to provide filtered input data for reducing noise; derive the input data to provide local maxima values of the input data; characterized in that the portable apparatus is further configured to: define at least one local maxima value pair; determine a weight value for the at least one local maxima value pair; select a local maxima value pair of the highest weight value; and generate an estimate of a pulse based on the selected local maxima value pair. a communication interface for communicating with a wireless network; a photo sensor for receiving non-invasive biometric information of a user; a light source; at least one processor; and at least one memory including computer program code; the at least one memory and the computer program code configured to, with the at least one processor, cause the portable apparatus to: transmit a light beam using the light source; receive noisy biometric information using the photo sensor, wherein the received noisy biometric information comprises a reflection of the transmitted light beam; filter the noisy biometric information to provide filtered input data for reducing noise; derive the input data to provide local maxima values of the input data; characterized in that the portable apparatus is further configured to: define at least one local maxima value pair; determine a weight value for the at least one local maxima value pair; select a local maxima value pair of the highest weight value; and generate an estimate of a pulse based on the selected local maxima value pair. transmit a light beam using the light source; receive noisy biometric information using the photo sensor, wherein the received noisy biometric information comprises a reflection of the transmitted light beam; filter the noisy biometric information to provide filtered input data for reducing noise; derive the input data to provide local maxima values of the input data; characterized in that the portable apparatus is further configured to: define at least one local maxima value pair; determine a weight value for the at least one local maxima value pair; select a local maxima value pair of the highest weight value; and generate an estimate of a pulse based on the selected local maxima value pair. define at least one local maxima value pair; determine a weight value for the at least one local maxima value pair; select a local maxima value pair of the highest weight value; and generate an estimate of a pulse based on the selected local maxima value pair.
An apparatus for supporting a wheel of a vehicle, comprising: a) a support structure; b) a support for supporting the wheel of the vehicle, the support movably mounted on the support structure, the support having a topside and an underside; c) at least one locating member mounted to one of the support structure and the underside of the support; and d) at least one clamping mechanism mounted to the other of the support structure and the underside of the support, the clamping mechanism selectively actuated between first and second positions, in the first position the support is moveable relative to the support structure, in the second position the clamping mechanism engages the locating member so that the support is held in a predetermined position relative to the support structure; characterised in that: e) the clamping mechanism comprises at least two engagement arms, and the engagement arms are configured in generally opposed relation to each other to bear against the locating member when the clamping mechanism is in the closed position; and f) the engagement arms are mounted to the support structure by a common pivot member. a) a support structure; b) a support for supporting the wheel of the vehicle, the support movably mounted on the support structure, the support having a topside and an underside; c) at least one locating member mounted to one of the support structure and the underside of the support; and d) at least one clamping mechanism mounted to the other of the support structure and the underside of the support, the clamping mechanism selectively actuated between first and second positions, in the first position the support is moveable relative to the support structure, in the second position the clamping mechanism engages the locating member so that the support is held in a predetermined position relative to the support structure; characterised in that: e) the clamping mechanism comprises at least two engagement arms, and the engagement arms are configured in generally opposed relation to each other to bear against the locating member when the clamping mechanism is in the closed position; and f) the engagement arms are mounted to the support structure by a common pivot member.
A sheet comprising ultrafine cellulose fiber having an average fiber width of 2 to 30 nm and having phosphoric acid-derived groups as ionic substituent, and a divalent or higher metal, wherein the divalent or higher metal is introduced in an amount of from 0.1 mmol/g to 3.0 mmol/g, and having a haze of 10.0% or less.
A cigarette case comprising: - a pack holder configured to receive a cigarette pack and comprising a lower portion; - the pack holder further comprises attaching means in the lower portion, arranged in two diametrically opposed external faces of the lower portion; - the attaching means are configured to engage with complementary attaching means of a cigarette butt container; - a cover arranged at the top of the pack holder; - an o-ring arranged in the lower portion and below said attaching means; - a cigarette extinguisher arranged at the lower portion below the o-ring; - an extensible cigarette butt container arranged at the bottom of the pack holder so that the interior space of the cigarette butt container engages with the exterior surface of the lower portion; - the cigarette butt container further comprises complementary attaching means arranged in two diametrically opposed interior faces of the cigarette butt container; - an aperture adapted to allow access to the interior space of the cigarette butt container; wherein the cigarette butt container is configured to extend outwards or retract inwards along said lower portion. - a pack holder configured to receive a cigarette pack and comprising a lower portion; - the pack holder further comprises attaching means in the lower portion, arranged in two diametrically opposed external faces of the lower portion; - the attaching means are configured to engage with complementary attaching means of a cigarette butt container; - a cover arranged at the top of the pack holder; - an o-ring arranged in the lower portion and below said attaching means; - a cigarette extinguisher arranged at the lower portion below the o-ring; - the pack holder further comprises attaching means in the lower portion, arranged in two diametrically opposed external faces of the lower portion; - the attaching means are configured to engage with complementary attaching means of a cigarette butt container; - a cover arranged at the top of the pack holder; - an o-ring arranged in the lower portion and below said attaching means; - a cigarette extinguisher arranged at the lower portion below the o-ring; - an extensible cigarette butt container arranged at the bottom of the pack holder so that the interior space of the cigarette butt container engages with the exterior surface of the lower portion; - the cigarette butt container further comprises complementary attaching means arranged in two diametrically opposed interior faces of the cigarette butt container; - an aperture adapted to allow access to the interior space of the cigarette butt container; - the cigarette butt container further comprises complementary attaching means arranged in two diametrically opposed interior faces of the cigarette butt container; - an aperture adapted to allow access to the interior space of the cigarette butt container;
An atomizing device (100, 200, 300) for an electronic cigarette, comprising: a housing (11, 21, 31); and an electromagnetic induction heating device (12, 22, 32), disposed in the housing (11, 21, 31); wherein the electromagnetic induction heating device (12, 22, 32) comprises a plurality of electromagnetic induction coils (121, 221, 321) and an induction heater (122, 222, 322), the plurality of electromagnetic induction coils (121, 221, 321) being disposed on the periphery of the induction heater (122, 222, 322), the induction heater (122, 222, 322) is configured to generate a corresponding vortex in a magnetic field which is generated by the plurality of electromagnetic induction coils (121, 221, 321), and the induction heater (122, 222, 322) is configured to radiate heat from the periphery to heat and bake tobacco materials in the electromagnetic induction heating device (12, 22, 32), and two of the plurality of electromagnetic induction coils (121, 221, 321) are symmetrically disposed at two opposite directions of the periphery of the induction heater; characterized in that the induction heater (122, 222, 322) defines a storage chamber (123, 2231, 3231), the storage chamber (123, 2231, 3231) is configured to be filled with the tobacco materials; wherein each of the plurality of electromagnetic induction coils (121, 221, 321) is an arc sheet which is formed by bending a planar coil, and wherein the plurality of electromagnetic induction coils (121, 221, 321) surround the periphery of the induction heater (122, 222, 322), and are disposed at a distance from the induction heater (122, 222, 322). a housing (11, 21, 31); and an electromagnetic induction heating device (12, 22, 32), disposed in the housing (11, 21, 31); wherein the electromagnetic induction heating device (12, 22, 32) comprises a plurality of electromagnetic induction coils (121, 221, 321) and an induction heater (122, 222, 322), the plurality of electromagnetic induction coils (121, 221, 321) being disposed on the periphery of the induction heater (122, 222, 322), the induction heater (122, 222, 322) is configured to generate a corresponding vortex in a magnetic field which is generated by the plurality of electromagnetic induction coils (121, 221, 321), and the induction heater (122, 222, 322) is configured to radiate heat from the periphery to heat and bake tobacco materials in the electromagnetic induction heating device (12, 22, 32), and two of the plurality of electromagnetic induction coils (121, 221, 321) are symmetrically disposed at two opposite directions of the periphery of the induction heater; characterized in that the induction heater (122, 222, 322) defines a storage chamber (123, 2231, 3231), the storage chamber (123, 2231, 3231) is configured to be filled with the tobacco materials; wherein each of the plurality of electromagnetic induction coils (121, 221, 321) is an arc sheet which is formed by bending a planar coil, and wherein the plurality of electromagnetic induction coils (121, 221, 321) surround the periphery of the induction heater (122, 222, 322), and are disposed at a distance from the induction heater (122, 222, 322).
Terahertz system, comprising a beat signal generating device which has - a first monomode laser for generating radiation of a first wavelength (λ 1); - a second monomode laser for generating radiation of a second wavelength (λ 2) different from the first wavelength (λ 1); - a first and a second output port (11, 12); - a phase modulating unit for modifying both the phase of radiation generated by the first laser and the phase of radiation generated the second laser (2, 3), wherein the beat signal generating device is configured in such a way that - the radiation generated by the first laser is transmitted through the second laser and superposed with the radiation generated by the second laser at the second output port, and - the radiation generated by the second laser is transmitted through the first laser and superposed with the radiation generated by the first laser at the first output port, such that - a first beat signal will be emitted at the first output port and a second beat signal will be emitted at the second output port,, wherein the first output port of the beat signal generating device is connected to a first component of the Terahertz system, wherein the first component is a Terahertz transmitter such that the first beat signal is supplied to the Terahertz transmitter, characterized in that the second output port of the beat signal generating device is connected to a second component of the Terahertz system, wherein the second component is a Terahertz receiver such that the second beat signal is supplied to the Terahertz receiver, wherein the phase between the first beat signal supplied to the Terahertz transmitter and the second beat signal supplied to the Terahertz receiver can be adjusted by means of the phase modulating unit. - a first monomode laser for generating radiation of a first wavelength (λ 1); - a second monomode laser for generating radiation of a second wavelength (λ 2) different from the first wavelength (λ 1); - a first and a second output port (11, 12); - a phase modulating unit for modifying both the phase of radiation generated by the first laser and the phase of radiation generated the second laser (2, 3), wherein the beat signal generating device is configured in such a way that - the radiation generated by the first laser is transmitted through the second laser and superposed with the radiation generated by the second laser at the second output port, and - the radiation generated by the second laser is transmitted through the first laser and superposed with the radiation generated by the first laser at the first output port, such that - a first beat signal will be emitted at the first output port and a second beat signal will be emitted at the second output port,, wherein the first output port of the beat signal generating device is connected to a first component of the Terahertz system, wherein the first component is a Terahertz transmitter such that the first beat signal is supplied to the Terahertz transmitter,