mhurhangee/patent-ind-claim-en huggingface dataset:
A hybrid power module for a vehicle, comprising a hybrid transmission, a first motor and a second motor , wherein the hybrid transmission comprises a transmission input shaft connected to an internal combustion engine of the vehicle, a transmission output shaft , a first planetary gear mechanism connected to the transmission input shaft , a second planetary gear mechanism connected to the transmission output shaft , and a transmission housing; wherein the first planetary gear mechanism comprises a first sun gear , a first planetary carrier , and a first ring gear ; the second planetary gear mechanism comprises a second sun gear , a second planetary carrier , and a second ring gear , wherein the transmission input shaft is rotationally fixedly connected to the first ring gear , power is transmitted between the first motor and the first sun gear , power is transmitted between the second motor and the second sun gear , and the transmission output shaft is rotationally fixedly connected to the second planetary carrier , wherein a first clutch , a second clutch and a third clutch are provided in the hybrid transmission, wherein the first clutch can engage or disengage the second ring gear and the transmission housing, the second clutch can engage or disengage the first planetary carrier and the second ring gear , and the third clutch can engage or disengage the first planetary carrier and the second planetary carrier . the transmission input shaft is rotationally fixedly connected to the first ring gear , power is transmitted between the first motor and the first sun gear , power is transmitted between the second motor and the second sun gear , and the transmission output shaft is rotationally fixedly connected to the second planetary carrier , wherein a first clutch , a second clutch and a third clutch are provided in the hybrid transmission, wherein the first clutch can engage or disengage the second ring gear and the transmission housing, the second clutch can engage or disengage the first planetary carrier and the second ring gear , and the third clutch can engage or disengage the first planetary carrier and the second planetary carrier .
A sawmill carriage assembly comprising a lower section , the lower section comprising: a front end and a rear end; two vertically extending rigid plates ; and structural components; characterized in that : the two vertically extending rigid plates grip the structural components between the two rigid plates ; the two rigid plates and the structural components are affixed together by bolts and nuts ; wherein the structural components comprise: at least one carriage wheel assembly , having a wheel disposed therein; and at least one vertical bar ; wherein the two rigid plates hold the at least one vertical bar by bolts and nuts ; and wherein a bolt that contributes to holding the two rigid plates and the at least one carriage wheel assembly together also functions as an axle of the wheel . a front end and a rear end; two vertically extending rigid plates ; and structural components; characterized in that : the two vertically extending rigid plates grip the structural components between the two rigid plates ; the two rigid plates and the structural components are affixed together by bolts and nuts ; wherein the structural components comprise: at least one carriage wheel assembly , having a wheel disposed therein; and at least one vertical bar ; wherein the two rigid plates hold the at least one vertical bar by bolts and nuts ; and wherein a bolt that contributes to holding the two rigid plates and the at least one carriage wheel assembly together also functions as an axle of the wheel . the two vertically extending rigid plates grip the structural components between the two rigid plates ; the two rigid plates and the structural components are affixed together by bolts and nuts ; wherein the structural components comprise: at least one carriage wheel assembly , having a wheel disposed therein; and at least one vertical bar ; at least one carriage wheel assembly , having a wheel disposed therein; and at least one vertical bar ; wherein the two rigid plates hold the at least one vertical bar by bolts and nuts ; and wherein a bolt that contributes to holding the two rigid plates and the at least one carriage wheel assembly together also functions as an axle of the wheel .
Method for metal arc welding using protective gas, - wherein a current-carrying wire electrode is melted by an arc , and - wherein, for metal arc welding using protective gas, a welding filler is used which contains at least one constituent which releases harmful emissions by evaporation, wherein - for the wire electrode , a composition is chosen which does not contain this constituent, and wherein the wire electrode essentially consists of 100 % iron, and - a currentless filler material containing this constituent is fed to the arc and/or a weld pool in a non-current-carrying manner, wherein the harmful emissions contain one or more of the following substances and/or their compounds, in particular their oxides: chromium, copper, manganese, nickel, cobalt, beryllium, cadmium, zinc, molybdenum, lead, barium, fluorine, magnesium, characterized in that an electrical contact sleeve is provided, in which the current-carrying wire electrode and a lead for the at least one additional wire and/or for the powder are contained, and wherein the at least one additional wire is fed to the arc and/or the weld pool in parallel or virtually in parallel to the wire electrode , wherein the lead is electrically insulated against the electrical contact sleeve. - wherein a current-carrying wire electrode is melted by an arc , and - wherein, for metal arc welding using protective gas, a welding filler is used which contains at least one constituent which releases harmful emissions by evaporation, wherein - for the wire electrode , a composition is chosen which does not contain this constituent, and wherein the wire electrode essentially consists of 100 % iron, and - a currentless filler material containing this constituent is fed to the arc and/or a weld pool in a non-current-carrying manner, wherein the harmful emissions contain one or more of the following substances and/or their compounds, in particular their oxides: chromium, copper, manganese, nickel, cobalt, beryllium, cadmium, zinc, molybdenum, lead, barium, fluorine, magnesium, characterized in that an electrical contact sleeve is provided, in which the current-carrying wire electrode and a lead for the at least one additional wire and/or for the powder are contained, and wherein the at least one additional wire is fed to the arc and/or the weld pool in parallel or virtually in parallel to the wire electrode , wherein the lead is electrically insulated against the electrical contact sleeve.
A process for preparing dioxolane comprising the steps of a) feeding a first feed stream containing ethylene glycol and a second feed stream containing formaldehyde and methanol in aqueous solution to a reaction distillation device and reacting ethylene glycol and formaldehyde in aqueous solution in the presence of at least one catalyst to obtain a raw product which comprises water, dioxolane and methanol, b) transferring a distillate stream containing raw product from the top of the reaction distillation device to a phase separation unit , wherein an organic extracting agent is present in the phase separation unit , c) transferring an organic fraction stream from the phase separation unit to an upper part of a purification column , withdrawing a bottom product stream containing dioxolane from the purification column , and recycling a distillate stream from the purification column to the phase separation unit , d) transferring an aqueous fraction stream from the phase separation unit to a waste water column , withdrawing a waste water stream from the bottom of the waste water column , withdrawing a side stream from a stage between the feed stage and the reflux stage of the waste water column and recycling this stream to the phase separation unit , and withdrawing a distillate stream containing methanol from the waste water column . a) feeding a first feed stream containing ethylene glycol and a second feed stream containing formaldehyde and methanol in aqueous solution to a reaction distillation device and reacting ethylene glycol and formaldehyde in aqueous solution in the presence of at least one catalyst to obtain a raw product which comprises water, dioxolane and methanol, b) transferring a distillate stream containing raw product from the top of the reaction distillation device to a phase separation unit , wherein an organic extracting agent is present in the phase separation unit , c) transferring an organic fraction stream from the phase separation unit to an upper part of a purification column , withdrawing a bottom product stream containing dioxolane from the purification column , and recycling a distillate stream from the purification column to the phase separation unit , d) transferring an aqueous fraction stream from the phase separation unit to a waste water column , withdrawing a waste water stream from the bottom of the waste water column , withdrawing a side stream from a stage between the feed stage and the reflux stage of the waste water column and recycling this stream to the phase separation unit , and withdrawing a distillate stream containing methanol from the waste water column .
Method for unloading a payload (L) at a loading station , wherein the payload (L(spez_L)) to be unloaded is selected from different possible payloads (L , L , L , L(i)) and registered, and wherein during the method the following items of information are registered by the control unit and signalled by means of a display unit : - a total target quantity (m_sum_ziel) of the selected payload (L(spez_L)) to be unloaded at the loading station from a picking unit on a lifting device of a work machine by shaking as a target quantity unit, - a current total quantity (m_sum_akt) of the selected payload (L(spez_L)) that has already been unloaded at the loading station as an actual quantity unit, - a number (n_KV) of already performed unloading procedures, which corresponds to a quantity (m_sum_akt) of the selected payload (L(spez_L)) that has already been unloaded at the loading station , - a difference (Δm_sum, m_zul) between the target quantity unit (m_sum_ziel) and the actual quantity unit (m_sum_akt), characterized in that the payload (L(spez_L)) is only proportionately shaken out of the picking unit during at least one unloading procedure in order to achieve the predetermined total target quantity (m_sum_ziel) at the loading station . - a total target quantity (m_sum_ziel) of the selected payload (L(spez_L)) to be unloaded at the loading station from a picking unit on a lifting device of a work machine by shaking as a target quantity unit, - a current total quantity (m_sum_akt) of the selected payload (L(spez_L)) that has already been unloaded at the loading station as an actual quantity unit, - a number (n_KV) of already performed unloading procedures, which corresponds to a quantity (m_sum_akt) of the selected payload (L(spez_L)) that has already been unloaded at the loading station , - a difference (Δm_sum, m_zul) between the target quantity unit (m_sum_ziel) and the actual quantity unit (m_sum_akt), characterized in that the payload (L(spez_L)) is only proportionately shaken out of the picking unit during at least one unloading procedure in order to achieve the predetermined total target quantity (m_sum_ziel) at the loading station .
A method for processing breast tissue image data, comprising: processing image data of a patient's breast tissue to generate a high-dimensional grid depicting one or more high-dimensional objects in the patient's breast tissue; determining a confidence or probability of each of the one or more high-dimensional objects depicted in the high-dimensional grid , wherein the probability or confidence of each of the one or more high-dimensional objects in the high-dimensional grid is determined based at least in part on a weight assigned to each of the one or more high-dimensional objects, and wherein the weight assigned to the one or more high-dimensional breast tissue objects is based on an object type; and generating a lower-dimensional format version of the one or more high-dimensional objects. processing image data of a patient's breast tissue to generate a high-dimensional grid depicting one or more high-dimensional objects in the patient's breast tissue; determining a confidence or probability of each of the one or more high-dimensional objects depicted in the high-dimensional grid , wherein the probability or confidence of each of the one or more high-dimensional objects in the high-dimensional grid is determined based at least in part on a weight assigned to each of the one or more high-dimensional objects, and wherein the weight assigned to the one or more high-dimensional breast tissue objects is based on an object type; and generating a lower-dimensional format version of the one or more high-dimensional objects.
A method for co-compartmentalising a cyclic polypeptide with a polynucleotide encoding the cyclic polypeptide, comprising the steps of: a) forming a compartment containing a polynucleotide encoding the cyclic polypeptide; b) expressing a polypeptide from the polynucleotide; and c) cyclising the polypeptide; wherein the polynucleotide encoding the cyclic peptide is contained in the same compartment, and wherein the compartment is selected from: a gel bead; an agarose-in-oil droplet; an agarose-in-IVTT-in-oil-in-water droplet; a droplet of water-in-oil (w/o); water-in-oil-in-water (w/o/w) emulsion; a vesicle, optionally a lipid vesicle; a microcapsule obtained by bioelectrospray or jetting; or a particle in solution, optionally a colloid or droplet in emulsion. a) forming a compartment containing a polynucleotide encoding the cyclic polypeptide; b) expressing a polypeptide from the polynucleotide; and c) cyclising the polypeptide; a gel bead; an agarose-in-oil droplet; an agarose-in-IVTT-in-oil-in-water droplet; a droplet of water-in-oil (w/o); water-in-oil-in-water (w/o/w) emulsion; a vesicle, optionally a lipid vesicle; a microcapsule obtained by bioelectrospray or jetting; or a particle in solution, optionally a colloid or droplet in emulsion.
A transportable access control unit for being positioned as part of a boundary between a first area and a second area so as to secure and control access from the first area to the second area, the transportable access control unit comprising: a rectangular-shape container , wherein the container is a portable standard international shipping container; at least one passing room disposed in the container allowing entry into a second, secured area from a first area , having at least a first passing room opening , and at least a second passing room opening , and a walkway in-between, wherein the first and second passing room openings are on the opposite longitudinal sides of the rectangular-shape container; the passing room having at least one barrier device located in the walkway but not connected to the first opening or the second opening , defining a first space between the first passing room opening and the barrier device, and a second space between the barrier device and the second passing room opening, characterised in that the barrier device is controllable to selectively remain locked or closed to prevent the person from entering the secured area if not authorised, and to allow the person to pass into the secured area if authorised. a rectangular-shape container , wherein the container is a portable standard international shipping container; at least one passing room disposed in the container allowing entry into a second, secured area from a first area , having at least a first passing room opening , and at least a second passing room opening , and a walkway in-between, wherein the first and second passing room openings are on the opposite longitudinal sides of the rectangular-shape container; the passing room having at least one barrier device located in the walkway but not connected to the first opening or the second opening , defining a first space between the first passing room opening and the barrier device, and a second space between the barrier device and the second passing room opening, characterised in that the barrier device is controllable to selectively remain locked or closed to prevent the person from entering the secured area if not authorised, and to allow the person to pass into the secured area if authorised.
A compressed air energy storage and power generation device , comprising: an electric motor configured to be driven by fluctuating input power; a compressor configured to be mechanically connected to the electric motor and to compress air; a pressure accumulation tank configured to be fluidly connected to the compressor and to store the air compressed by the compressor ; an expander configured to be fluidly connected to the pressure accumulation tank and to be driven by the compressed air supplied from the pressure accumulation tank ; a generator configured to be mechanically connected to the expander ; a cooling water flow passage to which cooling water is supplied; and a first heat exchanger provided with a portion of the cooling water flow passage , which is located in a casing of the compressor , the first heat exchanger being configured to perform heat exchange to heat the cooling water in the cooling water flow passage to high temperature and cool the air as a working fluid to low temperature, characterized by a first cooling flow passage through which a first cooling fluid for cooling the electric motor flows; and a second heat exchanger configured to perform heat exchange between the first cooling fluid heated to high temperature in the first cooling flow passage and the cooling water in the cooling water flow passage to heat the water in the cooling water flow passage to high temperature. an electric motor configured to be driven by fluctuating input power; a compressor configured to be mechanically connected to the electric motor and to compress air; a pressure accumulation tank configured to be fluidly connected to the compressor and to store the air compressed by the compressor ; an expander configured to be fluidly connected to the pressure accumulation tank and to be driven by the compressed air supplied from the pressure accumulation tank ; a generator configured to be mechanically connected to the expander ; a cooling water flow passage to which cooling water is supplied; and a first heat exchanger provided with a portion of the cooling water flow passage , which is located in a casing of the compressor , the first heat exchanger being configured to perform heat exchange to heat the cooling water in the cooling water flow passage to high temperature and cool the air as a working fluid to low temperature, characterized by a first cooling flow passage through which a first cooling fluid for cooling the electric motor flows; and a second heat exchanger configured to perform heat exchange between the first cooling fluid heated to high temperature in the first cooling flow passage and the cooling water in the cooling water flow passage to heat the water in the cooling water flow passage to high temperature.
A computer-implemented method for generating an edge curve to facilitate cutting at least a portion of a dental device, said method comprising: identifying at least one tooth reference point for each of at least two teeth on a dental model ; identifying at least one offset point corresponding to each of said at least one tooth reference points such that said at least one offset point is on a gingival surface of said dental model and positioned outside an interproximal area; characterised in that the method further comprises generating said edge curve by connecting the offset points such that the edge curve is outside the interproximal area and on the gingival surface. identifying at least one tooth reference point for each of at least two teeth on a dental model ; identifying at least one offset point corresponding to each of said at least one tooth reference points such that said at least one offset point is on a gingival surface of said dental model and positioned outside an interproximal area; characterised in that the method further comprises generating said edge curve by connecting the offset points such that the edge curve is outside the interproximal area and on the gingival surface.
A power tool , in particular a hammer drill and/or a chisel hammer drill, containing - a percussive mechanism having a percussive element for generating a percussive pulse onto a tool , which element is reversibly movable along a longitudinal axis (R) by means of a magnetic field in order to generate the percussive pulse; and - at least a first and second coil device for generating the magnetic field, characterized in that each coil device contains at least a first coil ring having a first radius (R1) and a second coil ring having a second radius (R2), the first radius (R1) of the first coil ring being greater than the second radius (R2) of the second coil ring , so that a space (S) is provided at least in part between the at least first and second coil ring , through which space a fluid (L), in particular an air flow, can flow in order to cool the coil device , the individual coil rings being arranged relative to one another such that a distance (A) between an upper end of an uppermost coil ring and a lower end of a lowermost coil ring is greater than the sum of the first height (H1) of the uppermost coil ring and the second height (H2) of the lowest coil ring . - a percussive mechanism having a percussive element for generating a percussive pulse onto a tool , which element is reversibly movable along a longitudinal axis (R) by means of a magnetic field in order to generate the percussive pulse; and - at least a first and second coil device for generating the magnetic field,