mhurhangee/patent-ind-claim-en huggingface dataset:
Method for receiving waste material, particularly domestic, medical and/or industrial waste comprising liquid and solid constituents, in a sewage pit and discharging the material to the sewer , wherein the sewage pit comprises: - a housing with a closable receiving space , wherein one or more of the walls of the housing is provided with at least one inlet configured to carry waste material into the receiving space, a flushing liquid feed which is embodied to feed flushing liquid to the receiving space for bringing the waste material into suspension, and at least one outlet which can be connected to the sewer and is configured to discharge the mixture of waste material and flushing liquid from the receiving space and to the sewer ; - at least one pump connectable or connected to the one or more outlets which is configured to pump the mixture which has been brought into suspension from the receiving space and to discharge the mixture via the one or more outlets , wherein method comprises - supplying waste material through the inlet into the receiving space of the sewage pit; - supplying flushing liquid through the flushing liquid feed into the receiving space and mixing the flushing liquid with the supplied waste material for the purpose of bringing the solid constituents thereof into suspension; - pumping the suspension of flushing liquid and waste material and discharging the same from the receiving space through the at least one outlet . - a housing with a closable receiving space , wherein one or more of the walls of the housing is provided with at least one inlet configured to carry waste material into the receiving space, a flushing liquid feed which is embodied to feed flushing liquid to the receiving space for bringing the waste material into suspension, and at least one outlet which can be connected to the sewer and is configured to discharge the mixture of waste material and flushing liquid from the receiving space and to the sewer ; - at least one pump connectable or connected to the one or more outlets which is configured to pump the mixture which has been brought into suspension from the receiving space and to discharge the mixture via the one or more outlets , - supplying waste material through the inlet into the receiving space of the sewage pit; - supplying flushing liquid through the flushing liquid feed into the receiving space and mixing the flushing liquid with the supplied waste material for the purpose of bringing the solid constituents thereof into suspension; - pumping the suspension of flushing liquid and waste material and discharging the same from the receiving space through the at least one outlet .
A toothbrush vibrator comprising: a vibration applicator having a case that allows a toothbrush to pass therethrough and holds the toothbrush and applying vibration to the toothbrush, the case being a hollow pillar-shaped body; and a grip detachably connected to the vibration applicator and to be gripped by a user wherein the grip has a case that is a hollow pillar-shaped body and is capable of housing a portion of a handle of the toothbrush that protrudes from the vibration applicator toward the grip, the vibration applicator includes a first magnet (m1) provided at a grip-side end portion of the vibration applicator, the grip includes second magnet (m2) provided at a vibration applicator-side end portion of the grip, and the vibration applicator and the grip are detachably connected by force of the first magnet and the second magnet attracting each other. a vibration applicator having a case that allows a toothbrush to pass therethrough and holds the toothbrush and applying vibration to the toothbrush, the case being a hollow pillar-shaped body; and a grip detachably connected to the vibration applicator and to be gripped by a user wherein the grip has a case that is a hollow pillar-shaped body and is capable of housing a portion of a handle of the toothbrush that protrudes from the vibration applicator toward the grip, the vibration applicator includes a first magnet (m1) provided at a grip-side end portion of the vibration applicator, the grip includes second magnet (m2) provided at a vibration applicator-side end portion of the grip, and the vibration applicator and the grip are detachably connected by force of the first magnet and the second magnet attracting each other.
Capacitor assembly comprising a capacitor , a first terminal , a cooling device , and a housing which contains the capacitor , characterized in that the first terminal has a first heat-absorbing part and a first heat-dissipating part , wherein the first terminal by way of the first heat-absorbing part and of the first heat-dissipating part dissipates heat from a first side of the capacitor to the cooling device ; wherein the first side of the capacitor is a side that faces away from the cooling device ; and wherein the first terminal is disposed on a first periphery of the housing , wherein the first heat-dissipating part is disposed on a second periphery of the housing . the first terminal has a first heat-absorbing part and a first heat-dissipating part , wherein the first terminal by way of the first heat-absorbing part and of the first heat-dissipating part dissipates heat from a first side of the capacitor to the cooling device ; wherein the first side of the capacitor is a side that faces away from the cooling device ; and wherein the first terminal is disposed on a first periphery of the housing , wherein the first heat-dissipating part is disposed on a second periphery of the housing .
A process for the production of a high purity first diol, selected from the group consisting of C2 to C7 diols from a product stream comprising two or more C2 to C7 diols, said process comprising the steps of: (i) subjecting the product stream to distillation in a first distillation column to provide a bottoms stream comprising high boiling by-products and a top stream comprising a mixture comprising the two or more C2 to C7 diols; (ii) providing said mixture comprising the two or more C2 to C7 diols as a feed to a second distillation column; (iii) providing a feed comprising an extractant to the second distillation column above the mixture comprising the two or more C2 to C7 diols; (iv) operating the second distillation column at a temperature in the range of from 50 to 250°C and a pressure in the range of from 0.1 to 400 kPa; (v) removing a stream comprising the first diol and the extractant as a bottoms stream from the second distillation column; and (vi) subjecting the stream comprising the first diol and the extractant to distillation in a third distillation column to provide a top stream comprising the first diol in high purity, wherein the extractant is selected from the group of C3 to C6 sugar alcohols and mixtures thereof, wherein the product stream is, or is derived from, a product stream of a saccharide hydrogenolysis process. (i) subjecting the product stream to distillation in a first distillation column to provide a bottoms stream comprising high boiling by-products and a top stream comprising a mixture comprising the two or more C2 to C7 diols; (ii) providing said mixture comprising the two or more C2 to C7 diols as a feed to a second distillation column; (iii) providing a feed comprising an extractant to the second distillation column above the mixture comprising the two or more C2 to C7 diols; (iv) operating the second distillation column at a temperature in the range of from 50 to 250°C and a pressure in the range of from 0.1 to 400 kPa; (v) removing a stream comprising the first diol and the extractant as a bottoms stream from the second distillation column; and (vi) subjecting the stream comprising the first diol and the extractant to distillation in a third distillation column to provide a top stream comprising the first diol in high purity, wherein the extractant is selected from the group of C3 to C6 sugar alcohols and mixtures thereof, wherein the product stream is, or is derived from, a product stream of a saccharide hydrogenolysis process.
An electromagnetic structure configured for processing quantum information and for admitting 2 N electromagnetic propagation modes (18, 19; 38, 39, 40, 42; 58, 59, 60, 62; C1, C2, C3, C4), at least one pair of said propagation modes being coupled together; and wherein each of said propagation modes is associated with a corresponding N-qubit quantum state indicative of the occupation of the propagation mode by a coherent state that propagates in said electromagnetic structure, and wherein N>1; said electromagnetic structure being connectable to an electromagnetic source configured for exciting in input to the electromagnetic structure an input quantum state, on the basis of which the electromagnetic structure generates an output quantum state, said input quantum state being formed by the quantum superposition of a single photon or by a coherent state with an arbitrary average number μ of photons.
An image-capturing apparatus, comprising: an image sensor that performs image-capturing; a controller that performs an extraction control for extracting a first image (BM) and a second image (RV) from a captured image captured by the image sensor , the first image (BM) being displayed on a first display section while the second image (RV) is being simultaneously displayed on a second display section ; and a data amount adjuster that adjusts data amounts of the first image (BM) and the second image (RV) according to vehicle information acquired from a vehicle , wherein the first image is an image of a region situated further rearward than a region just behind the rear of the vehicle , the second image (RV) is an image of a region just behind the rear of the vehicle, and wherein the vehicle information includes a traveling direction or a vehicle speed of the vehicle , wherein the data amount adjuster adjusts the data amount of the second image (RV) by restricting output of the second image, or the data amount adjuster adjusts the data amount of the first image (BM) by compressing the first image (BM), or the data amount of the second image (RV) by compressing the second image (RV). an image sensor that performs image-capturing; a controller that performs an extraction control for extracting a first image (BM) and a second image (RV) from a captured image captured by the image sensor , the first image (BM) being displayed on a first display section while the second image (RV) is being simultaneously displayed on a second display section ; and a data amount adjuster that adjusts data amounts of the first image (BM) and the second image (RV) according to vehicle information acquired from a vehicle , wherein the first image is an image of a region situated further rearward than a region just behind the rear of the vehicle , the second image (RV) is an image of a region just behind the rear of the vehicle, and wherein the vehicle information includes a traveling direction or a vehicle speed of the vehicle , wherein the data amount adjuster adjusts the data amount of the second image (RV) by restricting output of the second image, or the data amount adjuster adjusts the data amount of the first image (BM) by compressing the first image (BM), or the data amount of the second image (RV) by compressing the second image (RV).
An implantable blood pump, comprising: an inner housing sized to be implanted within a body of a patient; a rotor at least partially surrounded by the inner housing and configured to drive a flow of blood within the body; an electronic component associated with a surface of the inner housing, the electronic component including one or more thin film active electronic devices, the one or more electronic devices implementing one or more transducers configured to generate a signal based on movement associated with operation of the blood pump, the one or more transducers comprise at least first and second transducers spaced apart from one another in at least a first direction parallel to a downstream direction of the blood flow; and a stator at least partially surrounding the inner housing, the stator magnetically coupled with the rotor and overlying at least one of the one or more transducers. an inner housing sized to be implanted within a body of a patient; a rotor at least partially surrounded by the inner housing and configured to drive a flow of blood within the body; an electronic component associated with a surface of the inner housing, the electronic component including one or more thin film active electronic devices, the one or more electronic devices implementing one or more transducers configured to generate a signal based on movement associated with operation of the blood pump, the one or more transducers comprise at least first and second transducers spaced apart from one another in at least a first direction parallel to a downstream direction of the blood flow; and a stator at least partially surrounding the inner housing, the stator magnetically coupled with the rotor and overlying at least one of the one or more transducers.
A system for retorting oil shale, comprising, multi-fuel combustor , which is suitable for the combustion of different fuels, including spent shale, shale oil, shale gases and waste gases, pressurised retort , which is operated with an excess pressure compared to the atmospheric multi-fuel combustor to prevent air/flue gas leakage from the multi-fuel combustor to the pressurised retort and designed as a moving bed with continuous oil shale feed from the top and the spent shale exits at the bottom, and the retort gases exits from bottom and/or from several locations at the sidewall, heat pipe heat exchanger connected to the multi-fuel combustor and configured to indirectly heat the pressurized retort , waste heat recovery system , which is arranged downstream of the combustor and absorbs the waste heat of the flue gas to supply thermal energy for the use in the oil shale dryer or where it needs in the process, fluidized bed ash cooler , which cools down the shale ash temperature and preheats the combustion air that is supplied to the multi-fuel combustor , oil shale dryer , which decreases the moisture content of the raw oil shale using low-temperature steam, process water or thermal oil from the waste heat recovery system, providing the required thermal energy for the drying process, condensation system , which extracts wastewater, shale oil and non-condensable gases from the retort gases.
Blade for a blender, at least having: - a rotation axis ; - at least one knife which extends so as to proceed from the rotation axis and has at least one cutter ; and - a plurality of serrations which are configured in the at least one cutter , wherein the individual serrations are in each case mutually spaced apart by a flat portion of the at least one cutter ; characterized in that the flat portion of the at least one cutter has a sharpness that is inferior to that of the serrations . - a rotation axis ; - at least one knife which extends so as to proceed from the rotation axis and has at least one cutter ; and - a plurality of serrations which are configured in the at least one cutter , wherein the individual serrations are in each case mutually spaced apart by a flat portion of the at least one cutter ;
A footwear sole comprising: at least a first support structure and at least a second support structure ; the first support structure comprising, a first tubular body including a first wall that at least partially encloses a first hollow cavity and that extends circumferentially around the first hollow cavity , the first tubular body having a first reference axis ; the first tubular body comprising a first end and a second end spaced apart from one another in an axial direction; and the first wall comprising a first exterior surface facing away from the first hollow cavity and a first interior surface facing towards the first hollow cavity ; the second support structure comprising, a second tubular body including a second wall that at least partially encloses a second hollow cavity and that extends circumferentially around the second hollow cavity , the second tubular body having a second reference axis ; the second tubular body comprising a third end and a fourth end spaced apart from one another in an axial direction; and the second wall comprising a second exterior surface facing away from the second hollow cavity and a second interior surface facing towards the second hollow cavity ; wherein the first support structure and the second support structure are arranged end-to-end, such that the first end of the first support structure is coupled with the third end of the second support structure ; the first support structure and the second support structure being offset from one another, such that the first reference axis and the second reference axis are substantially parallel to, and not coaxial with, one another; a portion of the first exterior surface is continuous with, and transitioning uninterruptedly into, a portion of the second interior surface ; and a portion of the first interior surface is continuous with, and transitioning uninterruptedly into, a portion of the second exterior surface .
A reusable modular formwork system for manufacturing helical prefabricated staircases, the formwork system comprising the following elements: - a plurality of supporting board holding elements adjustable in inclination and, if necessary, in height, wherein the supporting board holding elements can be erected on a base surface each following the planned flight of the stairs, - supporting boards which can be fixed on the supporting board holding elements also following the flight of the stairs, wherein the supporting boards include recesses and/or projections for receiving step core elements on their end face which in the assembled state is at the top, - a plurality of step core elements of at least one type, wherein each step core element forms the formwork shell for one step on the upper side and includes projections and/or recesses on the lower side by which they can be inserted into the corresponding opposing recesses and/or projections of the supporting boards , and wherein on respectively one lateral surface of the step core elements extending normally to the upper side end face formwork elements can be fixed, - end face formwork elements which can be fixed to the respective step core elements , and which form the formwork shell for the end faces of the respective step, and - lateral formwork walls which can be placed on top of the step core elements for a lateral formwork of the stairs. - a plurality of supporting board holding elements adjustable in inclination and, if necessary, in height, wherein the supporting board holding elements can be erected on a base surface each following the planned flight of the stairs, - supporting boards which can be fixed on the supporting board holding elements also following the flight of the stairs, wherein the supporting boards include recesses and/or projections for receiving step core elements on their end face which in the assembled state is at the top, - a plurality of step core elements of at least one type, wherein each step core element forms the formwork shell for one step on the upper side and includes projections and/or recesses on the lower side by which they can be inserted into the corresponding opposing recesses and/or projections of the supporting boards , and wherein on respectively one lateral surface of the step core elements extending normally to the upper side end face formwork elements can be fixed, - end face formwork elements which can be fixed to the respective step core elements , and which form the formwork shell for the end faces of the respective step, and - lateral formwork walls which can be placed on top of the step core elements for a lateral formwork of the stairs.
A method of area coverage planning for an autonomous vehicle, the method comprising, at a computer system: receiving information of a boundary of a work area ; laying a plurality of tracks within the boundary of the work area , the plurality of tracks being spaced apart from each other by a spacing, wherein laying the plurality of tracks comprises: based on the information of the boundary of the work area , performing a multivariate optimization to: determine (i) an optimal direction of the plurality of tracks , and (ii) an optimal offset for a first track from the boundary , so as to minimize a total distance of the plurality of tracks ; and generating a trajectory that is traversable by the autonomous vehicle to traverse the plurality of tracks . receiving information of a boundary of a work area ; laying a plurality of tracks within the boundary of the work area , the plurality of tracks being spaced apart from each other by a spacing, wherein laying the plurality of tracks comprises: based on the information of the boundary of the work area , performing a multivariate optimization to: determine (i) an optimal direction of the plurality of tracks , and (ii) an optimal offset for a first track from the boundary , so as to minimize a total distance of the plurality of tracks ; and generating a trajectory that is traversable by the autonomous vehicle to traverse the plurality of tracks .
A method performed by a master node, MN, for measurement gap configuration, the method comprising: operating in a dual connectivity, DC, configuration with a secondary node, SN, and a wireless device ; determining, based on capability information received from the wireless device , that the wireless device uses a separate radio frequency, RF, chain for a first frequency range, FR1, and a second frequency range, FR2; configuring the wireless device with a first measurement gap configuration for FR1 and a second measurement gap configuration for FR2, wherein the first measurement gap configuration allows the wireless device to measure FR1 and the second measurement gap configuration allows the wireless device to measure FR2; and receiving a message from the SN , the message configured to request that the MN modifies at least one of the first measurement gap configuration for FR1 and the second measurement gap configuration for FR2. operating in a dual connectivity, DC, configuration with a secondary node, SN, and a wireless device ; determining, based on capability information received from the wireless device , that the wireless device uses a separate radio frequency, RF, chain for a first frequency range, FR1, and a second frequency range, FR2; configuring the wireless device with a first measurement gap configuration for FR1 and a second measurement gap configuration for FR2, wherein the first measurement gap configuration allows the wireless device to measure FR1 and the second measurement gap configuration allows the wireless device to measure FR2; and receiving a message from the SN , the message configured to request that the MN modifies at least one of the first measurement gap configuration for FR1 and the second measurement gap configuration for FR2.