mhurhangee/patent-ind-claim-en huggingface dataset:
A medical information processing apparatus comprising: processing circuitry configured to, based on surgical situation information concerning surgical characteristics at a time of observing an interior of a living body, select at least one of a plurality of biological images each having a different wavelength range or at least one of secondary images generated from the plurality of biological images each having a different wavelength range, as a recommended image and to output information concerning the recommended image to a user, whereby, in use, the user can decide whether to use the recommended image or not; wherein the processing circuitry is further configured to access a recommended image database which associates different surgical characteristics at the time of observing the interior of the living body with different recommended images, and selects the recommended image associated with the surgical characteristics of the surgical situation information. processing circuitry configured to, based on surgical situation information concerning surgical characteristics at a time of observing an interior of a living body, select at least one of a plurality of biological images each having a different wavelength range or at least one of secondary images generated from the plurality of biological images each having a different wavelength range, as a recommended image and to output information concerning the recommended image to a user, whereby, in use, the user can decide whether to use the recommended image or not; wherein the processing circuitry is further configured to access a recommended image database which associates different surgical characteristics at the time of observing the interior of the living body with different recommended images, and selects the recommended image associated with the surgical characteristics of the surgical situation information.
An apparatus for dispensing water, comprising: a water dispenser having a water inlet , a water dispensing outlet , and a water circulation outlet , wherein the water dispensing outlet can be opened or closed in order to selectively allow, in use, water to exit the water dispenser through the water dispensing outlet; a water tank ; a water circuit comprising a first part from the water tank to the water inlet of the water dispenser, and a second part from the water circulation outlet of the water dispenser to the water tank; a water purification unit forming part of the water circuit; and a water pump configured to pump water continuously in use through at least the first part of the water circuit. a water dispenser having a water inlet , a water dispensing outlet , and a water circulation outlet , wherein the water dispensing outlet can be opened or closed in order to selectively allow, in use, water to exit the water dispenser through the water dispensing outlet; a water tank ; a water circuit comprising a first part from the water tank to the water inlet of the water dispenser, and a second part from the water circulation outlet of the water dispenser to the water tank; a water purification unit forming part of the water circuit; and a water pump configured to pump water continuously in use through at least the first part of the water circuit.
An electrical supplied oven comprising: - a cooking cavity ; - an electric heating circuit associated with the cooking cavity and comprising a plurality of electric resistances , configured to heat the cooking cavity when supplied by electric current, and a plurality of switches (8-16) configured for selectively isolating one or more resistances from the electric heating circuit ; - a first switch configured for selectively coupling each other a first and a second electric resistance of the electric heating circuit in series or in parallel; - a control unit configured for controlling the switches (8-16) according to a plurality of different selectable cooking programs (A-I); characterized in that the control unit is configured for performing a first cooking program (F), wherein only the first and the second resistance are supplied, the first switch is in a configuration for coupling each other in series the first and the second electric resistance and wherein the other switches are controlled so as not to supply the remaining resistances ; wherein the electric heating circuit is configured so that, during the execution of the first cooking program (F), the ratio between the generated thermal power in KW and a factor dividing in dm3, depending on the volume of the cooking cavity , is comprised between a lower threshold value and an upper threshold value; the threshold values are: 0,5 ≤ P ̇ S 0,0042 ∗ V + 0,55 ≤ 1,5 wherein Ṗ S indicates the electricity supplied in KW and V indicates the volume of the cooking cavity in dm 3 . - a cooking cavity ; - an electric heating circuit associated with the cooking cavity and comprising a plurality of electric resistances , configured to heat the cooking cavity when supplied by electric current, and a plurality of switches (8-16) configured for selectively isolating one or more resistances from the electric heating circuit ; - a first switch configured for selectively coupling each other a first and a second electric resistance of the electric heating circuit in series or in parallel; - a control unit configured for controlling the switches (8-16) according to a plurality of different selectable cooking programs (A-I); the control unit is configured for performing a first cooking program (F), wherein only the first and the second resistance are supplied, the first switch is in a configuration for coupling each other in series the first and the second electric resistance and wherein the other switches are controlled so as not to supply the remaining resistances ; wherein the electric heating circuit is configured so that, during the execution of the first cooking program (F), the ratio between the generated thermal power in KW and a factor dividing in dm3, depending on the volume of the cooking cavity , is comprised between a lower threshold value and an upper threshold value; the threshold values are: 0,5 ≤ P ̇ S 0,0042 ∗ V + 0,55 ≤ 1,5 wherein Ṗ S indicates the electricity supplied in KW and V indicates the volume of the cooking cavity in dm 3 .
A connectedly-formed underwater exploration device , comprising: at least one battery-driven underwater exploration body formed by three pressure-resistant hollow glass spheres for housing an image capturing device, an illumination device, a recording device, an acoustic communication device, batteries and a control device, the batteries supplying electric power to the image capturing device, the illumination device and the recording device, the control device controlling the image capturing device, the illumination device, the recording device and the acoustic communication device, and a frame body made of metal or resin with three fitting holes to respectively mount said three pressure-resistant hollow glass spheres , the connectedly-formed underwater exploration device being characterized in that it also comprises: at least one battery body formed by three additional pressure-resistant hollow glass spheres for housing at least one battery and a frame body made of metal or resin with three fitting holes to respectively mount the three additional pressure-resistant hollow glass spheres , wherein the battery driven underwater exploration body and the battery body are connected with each other by connecting their respective frames with a connecting tool. at least one battery-driven underwater exploration body formed by three pressure-resistant hollow glass spheres for housing an image capturing device, an illumination device, a recording device, an acoustic communication device, batteries and a control device, the batteries supplying electric power to the image capturing device, the illumination device and the recording device, the control device controlling the image capturing device, the illumination device, the recording device and the acoustic communication device, and a frame body made of metal or resin with three fitting holes to respectively mount said three pressure-resistant hollow glass spheres , the connectedly-formed underwater exploration device being characterized in that it also comprises: at least one battery body formed by three additional pressure-resistant hollow glass spheres for housing at least one battery and a frame body made of metal or resin with three fitting holes to respectively mount the three additional pressure-resistant hollow glass spheres , wherein the battery driven underwater exploration body and the battery body are connected with each other by connecting their respective frames with a connecting tool.
Pressure-regulating valve, in particular a proportional pressure-regulating valve, comprising a valve housing with at least one pump (P), service (A) and tank connection (T), having a valve piston which is guided such that it can move in the valve housing and capable of being displaced by a controllable actuating device with a recess formed on the periphery of said valve piston, said recess defining a peripheral annular gap delimited by at least two control edges of the piston , and with a passage formed in the piston to create a fluidic connection between the front side of the piston to which the pressure of the service connection (A) is applied and the rear side (35 of the piston adjoining a rear pressure chamber , wherein the passage in the piston comprises a first throttle point in the region adjoining the front side of the piston and a channel leading to the peripheral annular gap in a region offset from the throttle point towards the rear side of the piston and this passage comprises a second throttle point , wherein one control edge interacts with the wall openings in the valve housing which are associated with the tank connection (T) during operation of the pressure-regulating valve, wherein another control edge interacts with the wall openings associated with the pump connection (P) controlling the pump pressure during the pressure-reducing function.
A device for impedance sensing capable of recovering data from an amplitude-modulated signal comprising: a sensing circuit operable to sense an amplitude-modulated signal having a carrier frequency; a mixer operable to mix the amplitude-modulated signal with a mixing signal having a mixing frequency to provide a frequency-downshifted signal having an intermediate frequency less than the carrier frequency; a filter operable to filter the frequency-downshifted signal to provide a filtered signal, the filter including a bandpass filter; a sampler operable to undersample the filtered signal at an undersampling frequency to provide a digital signal, the digital signal being representative of a modulating signal, and a controller operable to set the mixing frequency of the mixing signal to provide the frequency-downshifted signal with the intermediate frequency substantially equal to a center frequency of the passband of the bandpass filter. a sensing circuit operable to sense an amplitude-modulated signal having a carrier frequency; a mixer operable to mix the amplitude-modulated signal with a mixing signal having a mixing frequency to provide a frequency-downshifted signal having an intermediate frequency less than the carrier frequency; a filter operable to filter the frequency-downshifted signal to provide a filtered signal, the filter including a bandpass filter; a sampler operable to undersample the filtered signal at an undersampling frequency to provide a digital signal, the digital signal being representative of a modulating signal, and a controller operable to set the mixing frequency of the mixing signal to provide the frequency-downshifted signal with the intermediate frequency substantially equal to a center frequency of the passband of the bandpass filter.
Apparatus for drying aggregates , such as sand, comprising a loading unit , for loading aggregates to be dried, a drying unit , for drying said aggregates loaded in said loading unit , and a storage and offload unit , arranged to draw said dried aggregates from said drying unit and offload the same, wherein said drying unit comprises a drying drum , having an internal volume (V), in which said aggregates to be dried are collected, mixing members of said aggregates contained in said drying drum , and heating means , for heating said internal volume (V) of said drying drum , wherein said storage and offload unit comprises a storage hopper , in which the aggregate dried by said drying drum are contained, and an elevator member , such as a paddle wheel, adapted to draw from said drying drum a predefined amount of said aggregates, characterized in that the storage and offload unit further comprises heating resistors for heating said aggregates contained in said storage hopper , a transfer screw , arranged above said drying drum , arranged to receive said aggregates from said elevator member , and a cylinder , within which said transfer screw is arranged, having one or more openings on the side surface, arranged in correspondence with said storage hopper , such that said dried aggregates can fall by gravity into said storage hopper through said one or more openings .
A system for an aircraft propulsion system , comprising: an inlet lip extending circumferentially about an axial centerline ; a bulkhead extending circumferentially about the axial centerline , the bulkhead configured with the inlet lip to form a cavity axially between the inlet lip and the bulkhead ; and a piccolo tube for a thermal anti-icing system , the piccolo tube extending circumferentially about the axial centerline within the cavity ; wherein the piccolo tube is configured with an elliptical cross-sectional geometry; and characterised in that the system further comprises a mounting bracket attaching the piccolo tube to the bulkhead . an inlet lip extending circumferentially about an axial centerline ; a bulkhead extending circumferentially about the axial centerline , the bulkhead configured with the inlet lip to form a cavity axially between the inlet lip and the bulkhead ; and a piccolo tube for a thermal anti-icing system , the piccolo tube extending circumferentially about the axial centerline within the cavity ; wherein the piccolo tube is configured with an elliptical cross-sectional geometry; and characterised in that the system further comprises a mounting bracket attaching the piccolo tube to the bulkhead .
A shaver set comprising a plurality of electric shavers , each shaver comprising - a handle comprising a housing , - a motor received in said housing , - a shaver head connected to said handle by means of a support structure mounted to connector elements of said housing , - at least one cutter unit provided on said shaver head and including a cutter element and a shearfoil , wherein said cutter element is configured to be driven along a cutter oscillation axis by said motor via a drive transmitter connecting said motor to said cutter element , wherein the housings of all electric shavers including the drive transmitters supported by said housings and the connector elements of said housings are identical to each other, wherein the identical structure of the connector elements of all housings matches with the support structure of each shaver head so that the shaver heads are replaceable against each other and each shaver head is mountable to all housings of all shavers of the shaver set, characterized in that the support structures are different from each other, wherein at least two of the following three types are included: - the shaver head of a first shaver is connected to the handle thereof by means of a first support structure (30-1) configured to provide for a swivel axis and a tilting axis about which said shaver head may swivel and tilt relative to said handle , - the shaver head of a second shaver is connected to the handle thereof by means of a second support structure (30-2) configured to provide for only one of a swivel axis or a tilting axis about which said shaver head may swivel or tilt relative to said handle , and - the shaver head of a third shaver is connected to the handle thereof by means of a third support structure (30-3) configured to rigidly hold the shaver head relative to the handle . - a handle comprising a housing , - a motor received in said housing , - a shaver head connected to said handle by means of a support structure mounted to connector elements of said housing , - at least one cutter unit provided on said shaver head and including a cutter element and a shearfoil , wherein said cutter element is configured to be driven along a cutter oscillation axis by said motor via a drive transmitter connecting said motor to said cutter element , - the shaver head of a first shaver is connected to the handle thereof by means of a first support structure (30-1) configured to provide for a swivel axis and a tilting axis about which said shaver head may swivel and tilt relative to said handle , - the shaver head of a second shaver is connected to the handle thereof by means of a second support structure (30-2) configured to provide for only one of a swivel axis or a tilting axis about which said shaver head may swivel or tilt relative to said handle , and - the shaver head of a third shaver is connected to the handle thereof by means of a third support structure (30-3) configured to rigidly hold the shaver head relative to the handle .
An electrolysis plant for displaying hydrogen by means of electrolysis, the electrolysis plant comprising a central high-voltage transformer , two electrolyzer units , which each comprise at least two adjacent electrolyzer modules , which each comprise an electrolyzer and a power supply comprising a transformer and/or a rectifier , and an auxiliary plant unit , the power supplies of the electrolyzer module being connected to the central high-voltage transformer and the auxiliary plant unit being disposed between the electrolyzer units and connected to both electrolyzer units via a shared pipe unit so that the auxiliary plant unit is associated with both electrolyzer units together, the shared pipe unit comprising a plurality of pipes which extend from the auxiliary plant unit to the electrolyzer units , the auxiliary plant unit comprising a gas scrubber for hydrogen, which is connected to a hydrogen product pipe of the pipe unit via a tee , the hydrogen product pipe branching off of the electrolyzers , and a cooling device being provided for the electrolyzer modules and connected to the pipe unit .
Apparatus for use on a construction or worksite machine which is provided with a main body and at least one lift/lower element coupled to the main body, the apparatus comprising: at least one hydraulic cylinder for operating the lift/lower element: at least one hydraulic pump that has at least one electric motor coupled thereto for operating the hydraulic pump, the pump being configured for pumping hydraulic fluid along a flowline for operating at least one hydraulic cylinder that is coupled to the lift/lower element; and energy supply means comprising: at least one battery to provide electrical energy to the electric motor; and at least one hydrogen fuel cell for generating and supplying the battery with electrical energy for charging the battery; wherein the hydraulic cylinder is configured to provide volumetric neutral operation; wherein the hydraulic cylinder is configured to retract or extend to under load, and characterised in that the hydraulic pump is operable in motor mode using hydraulic fluid driven by the load to communicate energy from the cylinder to transfer the energy produced by the hydraulic cylinder under load to at least one energy storage unit, wherein the energy storage unit comprises the battery. at least one hydraulic pump that has at least one electric motor coupled thereto for operating the hydraulic pump, the pump being configured for pumping hydraulic fluid along a flowline for operating at least one hydraulic cylinder that is coupled to the lift/lower element; and energy supply means comprising: at least one battery to provide electrical energy to the electric motor; and at least one hydrogen fuel cell for generating and supplying the battery with electrical energy for charging the battery; at least one battery to provide electrical energy to the electric motor; and at least one hydrogen fuel cell for generating and supplying the battery with electrical energy for charging the battery; wherein the hydraulic cylinder is configured to provide volumetric neutral operation; wherein the hydraulic cylinder is configured to retract or extend to under load, and characterised in that the hydraulic pump is operable in motor mode using hydraulic fluid driven by the load to communicate energy from the cylinder to transfer the energy produced by the hydraulic cylinder under load to at least one energy storage unit, wherein the energy storage unit comprises the battery.
Method for the correction of chamfer sizes, chamfer shapes and chamfer symmetry at tooth edges which were produced with a deburring cutter with strongly asymmetric tooth shape (ChamferCut) for deburring a tooth blank , characterized in that a semi-automatic correction of the chamfers, i.e. the chamfer width and chamfer shape, is effected by coupling the movement of several axes of a gear cutting machine which at least comprises a workpiece axis of rotation as a C 1 -axis, the spatial shifting axes of a tool carriage as Z 1 -, X 1 - and Y 1 -axis, and the shifting direction in the axial direction of the tool axis as a V 1 -direction, comprising the following steps: - specifying the correction in an axial direction, - calculating the necessary correction amount of further axes by the controller with - coupling of the C 1 -axis to the Z 1 -axis via the helix angle (β) of the toothing and/or if the correction in the Z 1 -direction is specified so that a correction of the rotary position (C 1 ) of the workpiece is effected, - coupling of the C 1 -axis via the front contact angle (αt) of the toothing and of the Z 1 -axis via the swivel angle (η) of the tool to the V 1 -direction if the correction in the V1-direction is specified, so that corrections of the C 1 - and Z 1 -axes are performed, and - coupling of the Y 1 -axis to the C 1 -axis via the front contact angle (αt) of the toothing if the correction of the Y 1 -direction is specified, so that a correction is effected via the C 1 -axis. - specifying the correction in an axial direction, - calculating the necessary correction amount of further axes by the controller with - coupling of the C 1 -axis to the Z 1 -axis via the helix angle (β) of the toothing and/or if the correction in the Z 1 -direction is specified so that a correction of the rotary position (C 1 ) of the workpiece is effected, - coupling of the C 1 -axis via the front contact angle (αt) of the toothing and of the Z 1 -axis via the swivel angle (η) of the tool to the V 1 -direction if the correction in the V1-direction is specified, so that corrections of the C 1 - and Z 1 -axes are performed, and - coupling of the Y 1 -axis to the C 1 -axis via the front contact angle (αt) of the toothing if the correction of the Y 1 -direction is specified, so that a correction is effected via the C 1 -axis.
Torsional vibration damper , in particular dual-mass flywheel, having an input part and an output part with a common axis of rotation about which the input part and the output part can be rotated together and can be rotated relative to one another to a limited degree, a spring damper device which acts between the input part and the output part and which has a spring device , and a centrifugal force pendulum device with a pendulum mass support part and at least one pendulum mass which is arranged on the pendulum mass support part so as to be displaceable under the effect of centrifugal force, wherein the pendulum mass support part is arranged on the output part , and the centrifugal force pendulum device is arranged radially outside the spring device , wherein a connection between the pendulum mass support part and the output part is arranged radially outside the at least one pendulum mass , characterized in that the output part is designed as a sheet metal part.