mhurhangee/patent-ind-claim-en huggingface dataset:
A piston for an internal combustion engine, having: an inner piston cooling channel for the cooling of the piston ; and an inlet channel which opens into an inlet of the piston cooling channel , wherein a flow cross section of the inlet channel narrows at least in sections, in particular in a funnel shape, in a direction towards the inlet of the inner piston cooling channel , and the inlet channel is additionally designed to convey a cooling fluid flow to the inlet of the inner piston cooling channel , characterized in that : the inlet channel is surface-treated, preferably polished, at least in certain sections for the purposes of reducing a surface roughness; and/or the inlet channel is coated, in particular by thermal spraying, with a coating which lowers a flow resistance and/or reduces a surface roughness. an inner piston cooling channel for the cooling of the piston ; and an inlet channel which opens into an inlet of the piston cooling channel , wherein a flow cross section of the inlet channel narrows at least in sections, in particular in a funnel shape, in a direction towards the inlet of the inner piston cooling channel , and the inlet channel is additionally designed to convey a cooling fluid flow to the inlet of the inner piston cooling channel , characterized in that : the inlet channel is surface-treated, preferably polished, at least in certain sections for the purposes of reducing a surface roughness; and/or the inlet channel is coated, in particular by thermal spraying, with a coating which lowers a flow resistance and/or reduces a surface roughness. the inlet channel is surface-treated, preferably polished, at least in certain sections for the purposes of reducing a surface roughness; and/or the inlet channel is coated, in particular by thermal spraying, with a coating which lowers a flow resistance and/or reduces a surface roughness.
A fluid ejection device comprising: a chamber ; at least two fluid supply channels ; and more than two fluid inlets disposed between one of the fluid supply channels and the chamber , wherein a first number of fluid inlets are disposed between a first fluid supply channel and the chamber , and a second number of fluid inlets are disposed between a second fluid supply channel and the chamber ; a nozzle disposed at a top side of the chamber ; and an ejection element disposed at a bottom side of the chamber and selected from the group consisting of a piezoelectric ejection element and a thermal resistor ejection element, wherein the fluid inlets are disposed at the top side of the chamber . a chamber ; at least two fluid supply channels ; and more than two fluid inlets disposed between one of the fluid supply channels and the chamber , wherein a first number of fluid inlets are disposed between a first fluid supply channel and the chamber , and a second number of fluid inlets are disposed between a second fluid supply channel and the chamber ; a nozzle disposed at a top side of the chamber ; and an ejection element disposed at a bottom side of the chamber and selected from the group consisting of a piezoelectric ejection element and a thermal resistor ejection element, wherein the fluid inlets are disposed at the top side of the chamber .
A ride system in an amusement park, comprising: a ride vehicle configured to receive a ride passenger and comprising one or more sensors to monitor the ride passenger for a computer graphics generation system to determine the point of view of the ride passenger; electronic goggles configured to be worn by the ride passenger , wherein the electronic goggles comprise a camera and a display and wherein the one or more sensors are not included as part of the electronic goggles ; and the computer graphics generation system communicatively coupled to the electronic goggles and the one or more sensors of the ride vehicle , and configured to: generate streaming media of a real world environment based at least on image data captured via the camera of the electronic goggles ; generate one or more virtual augmentations superimposed on the streaming media of the real world environment using data at least from the one or more sensors of the ride vehicle ; and transmit the streaming media of the real world environment along with the one or more superimposed virtual augmentations to be displayed on the display of the electronic goggles . a ride vehicle configured to receive a ride passenger and comprising one or more sensors to monitor the ride passenger for a computer graphics generation system to determine the point of view of the ride passenger; electronic goggles configured to be worn by the ride passenger , wherein the electronic goggles comprise a camera and a display and wherein the one or more sensors are not included as part of the electronic goggles ; and the computer graphics generation system communicatively coupled to the electronic goggles and the one or more sensors of the ride vehicle , and configured to: generate streaming media of a real world environment based at least on image data captured via the camera of the electronic goggles ; generate one or more virtual augmentations superimposed on the streaming media of the real world environment using data at least from the one or more sensors of the ride vehicle ; and transmit the streaming media of the real world environment along with the one or more superimposed virtual augmentations to be displayed on the display of the electronic goggles . generate streaming media of a real world environment based at least on image data captured via the camera of the electronic goggles ; generate one or more virtual augmentations superimposed on the streaming media of the real world environment using data at least from the one or more sensors of the ride vehicle ; and transmit the streaming media of the real world environment along with the one or more superimposed virtual augmentations to be displayed on the display of the electronic goggles .
A multi-channel neurostimulation system , comprising: a plurality of electrical terminals configured for being respectively coupled to a plurality of electrodes ; stimulation output circuitry including electrical source circuitry of the same polarity configured for generating a plurality of pulsed electrical waveforms in a plurality of timing channels, wherein each timing channel identifies a set of electrodes that can be used to deliver one of the pulsed electrical waveforms to targeted tissue, and the stimulation output circuitry comprises one or more non-dedicated sources shared by various electrodes of the plurality of electrodes to allow overlap between pulses in the timing channels; and control circuitry configured for instructing the stimulation output circuitry to serially couple the electrical source circuitry to different sets of the electrodes when pulses of the respective pulsed electrical waveforms do not temporally overlap each other to operate the different electrode sets one at a time, and for instructing the stimulation output circuitry to couple the electrical source circuitry to a union of the different electrode sets to operate electrodes of the different electrode sets at the same time when pulses of the respective pulsed electrical waveforms in different timing channels temporally overlap each other, the control circuitry being operative to control the stimulation output circuitry to allow the temporal overlap when a non-dedicated source of the one or more non-dedicated sources is shared by the electrodes of the different electrode sets. a plurality of electrical terminals configured for being respectively coupled to a plurality of electrodes ; stimulation output circuitry including electrical source circuitry of the same polarity configured for generating a plurality of pulsed electrical waveforms in a plurality of timing channels, wherein each timing channel identifies a set of electrodes that can be used to deliver one of the pulsed electrical waveforms to targeted tissue, and the stimulation output circuitry comprises one or more non-dedicated sources shared by various electrodes of the plurality of electrodes to allow overlap between pulses in the timing channels; and control circuitry configured for instructing the stimulation output circuitry to serially couple the electrical source circuitry to different sets of the electrodes when pulses of the respective pulsed electrical waveforms do not temporally overlap each other to operate the different electrode sets one at a time, and for instructing the stimulation output circuitry to couple the electrical source circuitry to a union of the different electrode sets to operate electrodes of the different electrode sets at the same time when pulses of the respective pulsed electrical waveforms in different timing channels temporally overlap each other, the control circuitry being operative to control the stimulation output circuitry to allow the temporal overlap when a non-dedicated source of the one or more non-dedicated sources is shared by the electrodes of the different electrode sets.
A prefabricated building element having a prestressed planar load-bearing structure element made of textile concrete, a top concrete layer and/or a bottom concrete layer , characterized in that the prestressed planar load-bearing structure element is designed as a folded plate having a fold formed by elevations and/or depressions in the prestressed planar load-bearing structure element , the top concrete layer is designed on a surface of the prestressed load-bearing structure element in the depressions and/or between the elevations of the fold such that the top concrete layer forms a flat surface aligned plane-parallel to the prestressed load-bearing structure element , and/or the bottom concrete layer is designed on a surface of the prestressed planar load-bearing structure element arranged opposite the top concrete layer in the depressions and/or between the elevations of the fold such that the bottom concrete layer forms a flat surface aligned plane-parallel to the prestressed loading-bearing structure element . the prestressed planar load-bearing structure element is designed as a folded plate having a fold formed by elevations and/or depressions in the prestressed planar load-bearing structure element , the top concrete layer is designed on a surface of the prestressed load-bearing structure element in the depressions and/or between the elevations of the fold such that the top concrete layer forms a flat surface aligned plane-parallel to the prestressed load-bearing structure element , and/or the bottom concrete layer is designed on a surface of the prestressed planar load-bearing structure element arranged opposite the top concrete layer in the depressions and/or between the elevations of the fold such that the bottom concrete layer forms a flat surface aligned plane-parallel to the prestressed loading-bearing structure element .
A system for thermal analysis with a sample crucible on a sample side and a reference crucible on a reference side in a measurement chamber , wherein the sample side and the reference side of the system for thermal analysis are constituted symmetrically, wherein the sample crucible and the reference crucible are each provided with a Peltier system for temperature detection and/or for temperature adjustment, wherein a first combination comprising the sample crucible and an associated first Peltier system provided at the bottom of the sample crucible is formed on the sample side and a second combination comprising a reference crucible and an associated second Peltier system provided at the bottom of the reference crucible is formed on the reference side , wherein the two combinations (3, 7; 5, 8) sit on a cooling block , and wherein the system is designed so that the Peltier systems can be used both as temperature sensors for temperature detection and also as heating or cooling devices for the temperature adjustment in the thermal analysis.
System for the preparation of foodstuffs provided according to a system for the presentation of foodstuffs, said system comprising a plurality of individual ready-to-prepare food blocks and/or contiguous food blocks , each consisting of at least one foodstuff and formed into a basic shape having at least one through-opening formed in the food block , wherein the system comprises a cooking device in the form of a heating device with a receptacle for one or a plurality of food blocks serving as a cooking receptacle, the receptacle comprising a thermally conductive support body with a support for at least one surface of a food block and a heating mandrel projecting at right angles from the support , which is dimensioned in such a way that it can be inserted into the through-opening , wherein the heating device is an active heating device with an integrated heating device or a passive heating device for insertion into an external cooking device and wherein the heating mandrel is adapted in its shape to the through-opening in the food block .
A hydrogen production apparatus comprising: an anode ; a cathode ; a solid oxide electrolyte membrane on two surfaces of which the anode and the cathode are respectively placed, the solid oxide electrolyte membrane being protonically conductive; and a power supply configured to apply voltage between the anode and the cathode ; characterized in that the anode includes a first porous metal body; the hydrogen production apparatus is configured to introduce steam to the anode including the first porous metal body; the first porous metal body includes a porous metal body S and another porous metal body H other than the porous metal body S, the porous metal body S being arranged to oppose a supply port of the steam, and having a three-dimensional mesh-like skeleton, and the porous metal body H having a three-dimensional mesh-like skeleton; a porosity Ps of the porous metal body S and a porosity Ph of the porous metal body H satisfy a relationship: Ps < Ph; and the porous metal body S and the porous metal body H are combined and are bonded with one another by entanglement of their skeletons at their interfaces. an anode ; a cathode ; a solid oxide electrolyte membrane on two surfaces of which the anode and the cathode are respectively placed, the solid oxide electrolyte membrane being protonically conductive; and a power supply configured to apply voltage between the anode and the cathode ; characterized in that the anode includes a first porous metal body; the hydrogen production apparatus is configured to introduce steam to the anode including the first porous metal body; the first porous metal body includes a porous metal body S and another porous metal body H other than the porous metal body S, the porous metal body S being arranged to oppose a supply port of the steam, and having a three-dimensional mesh-like skeleton, and the porous metal body H having a three-dimensional mesh-like skeleton; the porous metal body S being arranged to oppose a supply port of the steam, and having a three-dimensional mesh-like skeleton, and the porous metal body H having a three-dimensional mesh-like skeleton; a porosity Ps of the porous metal body S and a porosity Ph of the porous metal body H satisfy a relationship: Ps < Ph; and the porous metal body S and the porous metal body H are combined and are bonded with one another by entanglement of their skeletons at their interfaces.
A steering lock device comprising: a motor configured to rotate a motor shaft ; a worm attached to the motor shaft of the motor ; a main gear configured to rotate along with rotation of the worm ; a cam member integrally provided with the main gear ; and a rod including an insertion and extraction portion which is configured to be inserted into and extracted from an opening provided on a steering shaft side in accordance with an operation of the cam member along with rotation of the main gear , wherein at least a part of at least one member of the worm and the insertion and extraction portion is configured to be accommodated in a circumferential region of the main gear when the main gear is viewed in a plan view along a rotation axis direction of the main gear , characterized in that the main gear is an arc-shaped gear including teeth in an arc shape, which forms a part of a circle, wherein the main gear has a shape in which a space is secured in a remaining portion of the circle, i.e. a portion exclusive of the substantially semicircular main gear , and a stopper is formed in a portion of the space in a circumferential region of the main gear . a motor configured to rotate a motor shaft ; a worm attached to the motor shaft of the motor ; a main gear configured to rotate along with rotation of the worm ; a cam member integrally provided with the main gear ; and a rod including an insertion and extraction portion which is configured to be inserted into and extracted from an opening provided on a steering shaft side in accordance with an operation of the cam member along with rotation of the main gear , wherein at least a part of at least one member of the worm and the insertion and extraction portion is configured to be accommodated in a circumferential region of the main gear when the main gear is viewed in a plan view along a rotation axis direction of the main gear , characterized in that the main gear is an arc-shaped gear including teeth in an arc shape, which forms a part of a circle, wherein the main gear has a shape in which a space is secured in a remaining portion of the circle, i.e. a portion exclusive of the substantially semicircular main gear , and a stopper is formed in a portion of the space in a circumferential region of the main gear .
A resin composition for an acoustic matching layer, comprising a resin, a hollow filler, and a thixotropy imparting agent, wherein the resin composition has a viscosity measured using a B-type viscometer with rotor No. 4 at a rotation speed of 0.3 rpm at 25°C of 1130 to 4000 Pa·s, and has a thixotropy index expressed by the ratio (V1/V2) between a viscosity (V1) measured using a B-type viscometer with rotor No. 4 at a rotation speed of 0.3 rpm and a viscosity (V2) measured using a B-type viscometer with rotor No. 4 at a rotation speed of 1.5 rpm, at 50°C, of 3.0 to 5.0.
Arrangement providing a seal around a shaft and having a first pairing comprising a first rotating element and a first stationary element which form a sealing gap for a lubricating film, wherein the arrangement has a shaft sleeve , wherein the arrangement has a further pairing comprising a further rotating element and a further stationary element between which a sealing gap for a lubricating film is arranged, wherein the first rotating element is formed in one piece with the shaft sleeve , wherein the arrangement comprises a stationary carrier and a stationary housing part which are connected to one another, wherein the further stationary element is connected to the stationary carrier , wherein the stationary element is surrounded at least partially by the housing part and the shaft sleeve is secured against axial displacement by a ring-like element , wherein the shaft sleeve is connected to a rotating carrier element which forms a delimitation against axial displacements, characterized in that the shaft sleeve is fixed between the rotating carrier element and the ring-like element . wherein the shaft sleeve is connected to a rotating carrier element which forms a delimitation against axial displacements, characterized in that the shaft sleeve is fixed between the rotating carrier element and the ring-like element .
A computer-implemented method of assessing the performance of a hardware design for an integrated circuit to complete a symbolic task, wherein the symbolic task represents a set or group of tasks using one or more symbolic variables, the method comprising: (a) receiving the hardware design ; (b) receiving a hardware monitor comprising: monitoring and counting logic configured to: monitor one or more control signals and/or data signals of the hardware design to identify start and completion of the symbolic task; and count a number of cycles between the start and the completion of the symbolic task; and property evaluation logic configured to evaluate one or more formal properties related to the counted number of cycles to assess the performance of the hardware design in completing the symbolic task; (c) formally verifying , using a formal verification tool, that the one or more formal properties hold for the hardware design for each task of the set or group of tasks which the symbolic task represents by verifying that the one or more formal properties hold for all valid values of the one or more symbolic variables; and (d) outputting an indication of whether each of the one or more formal properties was successfully verified, the indication providing an exhaustive assessment of the performance of the hardware design in completing the task. (a) receiving the hardware design ; (b) receiving a hardware monitor comprising: monitoring and counting logic configured to: monitor one or more control signals and/or data signals of the hardware design to identify start and completion of the symbolic task; and count a number of cycles between the start and the completion of the symbolic task; and property evaluation logic configured to evaluate one or more formal properties related to the counted number of cycles to assess the performance of the hardware design in completing the symbolic task; monitoring and counting logic configured to: monitor one or more control signals and/or data signals of the hardware design to identify start and completion of the symbolic task; and count a number of cycles between the start and the completion of the symbolic task; and monitor one or more control signals and/or data signals of the hardware design to identify start and completion of the symbolic task; and count a number of cycles between the start and the completion of the symbolic task; and property evaluation logic configured to evaluate one or more formal properties related to the counted number of cycles to assess the performance of the hardware design in completing the symbolic task; (c) formally verifying , using a formal verification tool, that the one or more formal properties hold for the hardware design for each task of the set or group of tasks which the symbolic task represents by verifying that the one or more formal properties hold for all valid values of the one or more symbolic variables; and (d) outputting an indication of whether each of the one or more formal properties was successfully verified, the indication providing an exhaustive assessment of the performance of the hardware design in completing the task.
An isolated Rhodococcus ruber cell wall skeleton for use in the treatment of a human papilloma virus infection, wherein said isolated Rhodococcus ruber cell wall skeleton is derived from Rhodococcus ruber deposited at China General Microbiological Culture Collection Center, No.1-3 West Beichen Road, Chaoyang District, Beijing, on March 22, 2019, under deposit number CGMCC 17431.