mhurhangee/patent-ind-claim-en huggingface dataset:
A hybrid lamp for a vehicle, for use on vehicle exteriors, comprising: a functional surface , outwardly facing surfaces of the functional surface comprising a metalized surface; a functional marking integrated within the functional surface, the functional marking being embossed such that portions of the functional marking protrude in front of the functional surface and/or the functional marking being recessed with respect to the functional surface; a plurality of light sources (151 - 156) configured to illuminate the functional marking and the functional surface; a housing adapted to structurally support the plurality of light sources and the functional surface, wherein the housing is configured with a plurality of mounting locations (141 - 146) configured for structurally supporting the plurality of light sources, at least a part of the plurality of light sources being arranged above and/or below the functional surface for projecting light onto the functional surface; and a controller configured to individually control each of the plurality of light sources for providing different illumination patterns of the functional marking and the functional surface such that automotive functional lighting and non-automotive functional lighting is provided. a functional surface , outwardly facing surfaces of the functional surface comprising a metalized surface; a functional marking integrated within the functional surface, the functional marking being embossed such that portions of the functional marking protrude in front of the functional surface and/or the functional marking being recessed with respect to the functional surface; a plurality of light sources (151 - 156) configured to illuminate the functional marking and the functional surface; a housing adapted to structurally support the plurality of light sources and the functional surface, wherein the housing is configured with a plurality of mounting locations (141 - 146) configured for structurally supporting the plurality of light sources, at least a part of the plurality of light sources being arranged above and/or below the functional surface for projecting light onto the functional surface; and a controller configured to individually control each of the plurality of light sources for providing different illumination patterns of the functional marking and the functional surface such that automotive functional lighting and non-automotive functional lighting is provided.
A carbon nanotube enhanced polymer comprising: a polymer ; and a plurality of carbon nanotube sheetlets mixed with the polymer , the carbon nanotube sheetlets each including a network of intertwined carbon nanotubes , wherein a length of the plurality of carbon nanotube sheetlets is in a range of 1 to 10,000 μm, a length to width ratio of the plurality of carbon nanotube sheetlets is in a range of 1:1 to 1000:1, and a length to thickness ration of the plurality of carbon nanotube sheetlets is in a range of 1:1 to 100:1, wherein the polymer is in the form of a polymer powder , and the plurality of carbon nanotube sheetlets are mixed with the polymer powder . a polymer ; and a plurality of carbon nanotube sheetlets mixed with the polymer , the carbon nanotube sheetlets each including a network of intertwined carbon nanotubes , wherein a length of the plurality of carbon nanotube sheetlets is in a range of 1 to 10,000 μm, a length to width ratio of the plurality of carbon nanotube sheetlets is in a range of 1:1 to 1000:1, and a length to thickness ration of the plurality of carbon nanotube sheetlets is in a range of 1:1 to 100:1, wherein the polymer is in the form of a polymer powder , and the plurality of carbon nanotube sheetlets are mixed with the polymer powder .
A process for producing ice cream or dairy and non-dairy powder mix, the process comprising: grinding and blending dried ingredients forming an active component, wherein the dried ingredients include a first mixture of a purified protein source having between 35-99% protein by weight, a monoglyceride emulsifier, a carrier and a stabilizer at low shear rate, said low shear rate defining a rate at which the monoglyceride emulsifier is not melted and flowed; grinding and blending the active component at high shear rate, said high shear rate defining a rate at which the monoglyceride emulsifier is melted and flowed, for obtaining an active component shaped of powder sheets; ambient cooling the active component; mixing the active component at low shear rate for obtaining fine particle homogenous mixture; and combining the active component with a bulking component, which includes sweeteners, fats or dairy powders, at low shear rate. grinding and blending dried ingredients forming an active component, wherein the dried ingredients include a first mixture of a purified protein source having between 35-99% protein by weight, a monoglyceride emulsifier, a carrier and a stabilizer at low shear rate, said low shear rate defining a rate at which the monoglyceride emulsifier is not melted and flowed; grinding and blending the active component at high shear rate, said high shear rate defining a rate at which the monoglyceride emulsifier is melted and flowed, for obtaining an active component shaped of powder sheets; ambient cooling the active component; mixing the active component at low shear rate for obtaining fine particle homogenous mixture; and combining the active component with a bulking component, which includes sweeteners, fats or dairy powders, at low shear rate.
A vehicle rear wing structure , comprising a rear wing plate and a rear wing , wherein the rear wing plate includes: a buckle portion , formed into an angular structure, and is used to clip and hold along a front end of the rear wing , so that the rear wing plate is fixed securely onto a surface of the rear wing , and the rear wing plate will not be blown away due to wind resistance when a vehicle moves at a high speed; a main body portion , formed into a planar plate structure, and is disposed on a surface of the rear wing , and is connected and fixed to the buckle portion ; and a protrusion portion , which is formed into a tilt-up structure and tilts up along a rear end of the rear wing to form a wind resistance plane, connected and fixed along a rear end of the main body portion , and generates wind resistance when the vehicle moves at a high speed, wherein, the buckle portion , the main body portion , and the protrusion portion are formed integrally into a body. a buckle portion , formed into an angular structure, and is used to clip and hold along a front end of the rear wing , so that the rear wing plate is fixed securely onto a surface of the rear wing , and the rear wing plate will not be blown away due to wind resistance when a vehicle moves at a high speed; a main body portion , formed into a planar plate structure, and is disposed on a surface of the rear wing , and is connected and fixed to the buckle portion ; and a protrusion portion , which is formed into a tilt-up structure and tilts up along a rear end of the rear wing to form a wind resistance plane, connected and fixed along a rear end of the main body portion , and generates wind resistance when the vehicle moves at a high speed, wherein, the buckle portion , the main body portion , and the protrusion portion are formed integrally into a body.
An apparatus acquiring physiological data from a living being, configured to be installed in bedding with bed frame elements, the apparatus comprising an acquisition portion which comprises: - a sensor designed to pick up mechanical waves passing through the bedding, - a support device (SP) comprising a plurality of rigid panels , configured to support the sensor, the support device (SP) being configured to rest on bed frame elements in a configuration for use of the acquisition device in bedding, so that the support device (SP) is interposed between the bed frame elements and the sensor. wherein the acquisition portion extends along a longitudinal direction (X) and the plurality of rigid panels are arranged side by side along the longitudinal axis (X) of the acquisition portion, connected to each other by a folding zone allowing folding of the support device (SP). - a sensor designed to pick up mechanical waves passing through the bedding, - a support device (SP) comprising a plurality of rigid panels , configured to support the sensor, the support device (SP) being configured to rest on bed frame elements in a configuration for use of the acquisition device in bedding, so that the support device (SP) is interposed between the bed frame elements and the sensor. wherein the acquisition portion extends along a longitudinal direction (X) and the plurality of rigid panels are arranged side by side along the longitudinal axis (X) of the acquisition portion, connected to each other by a folding zone allowing folding of the support device (SP).
A trocar comprising: a cutting element comprising one or more cutting blades ; an expansion element comprising an activation rod for expanding the cutting element radially outwardly with respect to a longitudinal axis (X) of the trocar ; and a hollow shaft , the one or more cutting blades comprising two opposed cutting blades separated by a gap , the two opposed cutting blades being radially displaceable with respect to the longitudinal axis (X), the two opposed cutting blades being radially displaceable away from one another to an expanded position, and radially displaceable toward one another to a retracted position, and the activation rod comprising a wedge configured to at least partially enter the gap between the two opposed cutting blades to displace the cutting blades to the expanded position, characterized in that the trocar further comprises a piercing tip . a cutting element comprising one or more cutting blades ; an expansion element comprising an activation rod for expanding the cutting element radially outwardly with respect to a longitudinal axis (X) of the trocar ; and a hollow shaft , the one or more cutting blades comprising two opposed cutting blades separated by a gap , the two opposed cutting blades being radially displaceable with respect to the longitudinal axis (X), the two opposed cutting blades being radially displaceable away from one another to an expanded position, and radially displaceable toward one another to a retracted position, and the activation rod comprising a wedge configured to at least partially enter the gap between the two opposed cutting blades to displace the cutting blades to the expanded position, characterized in that the trocar further comprises a piercing tip .
Passively q-switched solid state laser comprising - a resonator in which an active laser material is arranged, and which has an uncoupling end mirror for uncoupling laser pulses from the resonator which have a pulse duration of less than 1 nanosecond, - an optical fibre into which the laser pulses uncoupled from the uncoupling end mirror are coupled, - a chirped volume Bragg grating on which a reflection of the laser pulses takes place after they have passed through the optical fibre to shorten the duration of the pulse, wherein the pulse duration is less than 30 picoseconds after the reflection on the chirped volume Bragg grating , wherein the active laser material arranged in the resonator is Nd:YAG and, furthermore, a saturable absorber formed from Cr:YAG is arranged in the resonator, said absorber having a transmission in the unsaturated state of less then 50% wherein the length (a) of the resonator is in the range of 1mm to 10mm and the laser pulses uncoupled at the uncoupling end mirror of the resonator have a pulse energy in the range of 1 μJ to 200 μJ. - a resonator in which an active laser material is arranged, and which has an uncoupling end mirror for uncoupling laser pulses from the resonator which have a pulse duration of less than 1 nanosecond, - an optical fibre into which the laser pulses uncoupled from the uncoupling end mirror are coupled, - a chirped volume Bragg grating on which a reflection of the laser pulses takes place after they have passed through the optical fibre to shorten the duration of the pulse, wherein the pulse duration is less than 30 picoseconds after the reflection on the chirped volume Bragg grating , wherein the active laser material arranged in the resonator is Nd:YAG and, furthermore, a saturable absorber formed from Cr:YAG is arranged in the resonator, said absorber having a transmission in the unsaturated state of less then 50% wherein the length (a) of the resonator is in the range of 1mm to 10mm and the laser pulses uncoupled at the uncoupling end mirror of the resonator have a pulse energy in the range of 1 μJ to 200 μJ.
Drive system for driving a movable flow body , comprising: - a drive unit , - a shaft having an axial support means , - a torque sensing device , - a no-back friction unit , and - an axial bearing , wherein the drive unit is coupled with the shaft to rotate the shaft , wherein the torque sensing device is coupled with at least one of the drive unit and the shaft to detect a torque transferred from the drive unit into the shaft , wherein the no-back friction unit is arranged between the axial bearing and the axial support means of the shaft , such that an axial load of the shaft is supported by the axial bearing , and wherein the no-back friction unit is designed to substantially not counteract a rotation of the shaft in a first direction of rotation of the shaft and to apply a friction-induced additional torque to the shaft in an opposite second direction of rotation; characterised in that the no-back friction unit comprises a one-way clutch and a friction disc device having a first friction disc and a second friction disc in friction contact, wherein the one-way clutch and the friction disc device are designed to mutually rotate the first friction disc and the second friction disc with the one-way clutch in the first direction of rotation of the shaft and to provide a relative rotation between the first friction disc and the second friction disc in the second direction of rotation. - a drive unit , - a shaft having an axial support means , - a torque sensing device , - a no-back friction unit , and - an axial bearing , wherein the drive unit is coupled with the shaft to rotate the shaft , wherein the torque sensing device is coupled with at least one of the drive unit and the shaft to detect a torque transferred from the drive unit into the shaft , wherein the no-back friction unit is arranged between the axial bearing and the axial support means of the shaft , such that an axial load of the shaft is supported by the axial bearing , and wherein the no-back friction unit is designed to substantially not counteract a rotation of the shaft in a first direction of rotation of the shaft and to apply a friction-induced additional torque to the shaft in an opposite second direction of rotation; characterised in that the no-back friction unit comprises a one-way clutch and a friction disc device having a first friction disc and a second friction disc in friction contact, wherein the one-way clutch and the friction disc device are designed to mutually rotate the first friction disc and the second friction disc with the one-way clutch in the first direction of rotation of the shaft and to provide a relative rotation between the first friction disc and the second friction disc in the second direction of rotation.
A pharmaceutical composition comprising Compound 8: 8 or a pharmaceutically acceptable salt thereof and a pharmaceutically acceptable excipient, wherein the pharmaceutical composition has a pH of 4 to 5, wherein the pharmaceutical composition further comprises a citrate buffer and wherein the pharmaceutically acceptable excipient comprises mannitol.
A wafer heating and holding device comprising: a rotary shaft ; a rotary table placed on an end of the rotary shaft and configured to hold a wafer(W) ; a drive motor configured to supply motive power to the rotary shaft ; heating means provided within the rotary table and below the wafer (W) while avoiding contact with the wafer (W) to heat the wafer (W), a reflective board provided between the rotary table and the heating means , a resin sheet , wherein the resin sheet is provided on the heating means , a contactless electric power supply mechanism for a rotary table comprising: a fixed-side primary coil wound around the rotary shaft ; an electric power supply source connected to the fixed-side primary coil ; a rotary table-side secondary coil , which is provided so as to correspond to the fixed-side primary coil and be separated from the fixed-side primary coil by a predetermined distance, and is mounted to the rotary table ; wherein the wafer heating and holding device is adapted to use the contactless electric power supply mechanism, wherein the heating means is connected to the rotary table-side secondary coil , and wherein the heating means is supplied with electric power via the rotary table-side secondary coil by electromagnetic induction. a rotary shaft ; a rotary table placed on an end of the rotary shaft and configured to hold a wafer(W) ; a drive motor configured to supply motive power to the rotary shaft ; heating means provided within the rotary table and below the wafer (W) while avoiding contact with the wafer (W) to heat the wafer (W), a reflective board provided between the rotary table and the heating means , a resin sheet , wherein the resin sheet is provided on the heating means , a contactless electric power supply mechanism for a rotary table comprising: a fixed-side primary coil wound around the rotary shaft ; an electric power supply source connected to the fixed-side primary coil ; a rotary table-side secondary coil , which is provided so as to correspond to the fixed-side primary coil and be separated from the fixed-side primary coil by a predetermined distance, and is mounted to the rotary table ; a fixed-side primary coil wound around the rotary shaft ; an electric power supply source connected to the fixed-side primary coil ; a rotary table-side secondary coil , which is provided so as to correspond to the fixed-side primary coil and be separated from the fixed-side primary coil by a predetermined distance, and is mounted to the rotary table ; wherein the wafer heating and holding device is adapted to use the contactless electric power supply mechanism, wherein the heating means is connected to the rotary table-side secondary coil , and
Apparatus for generating a sound field description from an input signal comprising one or more channels, the apparatus comprising: an input signal analyzer for obtaining diffuseness data from the input signal; and a sound component generator for generating, from the input signal, one or more sound field components of a first group of sound field components having for each sound field component a direct component and a diffuse component, and for generating, from the input signal, a second group of sound field components having only a direct component, resulting in an energy error provided that the diffuseness data for a frame or time/frequency bin under consideration has a value different from zero, wherein the sound component generator is configured to perform an energy compensation for compensating the energy error when generating the first group of sound field components, the energy compensation depending on the diffuseness data and at least one of a number (K) of diffuse components in the first group, and a maximum order (H) of sound field components of the second group. an input signal analyzer for obtaining diffuseness data from the input signal; and a sound component generator for generating, from the input signal, one or more sound field components of a first group of sound field components having for each sound field component a direct component and a diffuse component, and for generating, from the input signal, a second group of sound field components having only a direct component, resulting in an energy error provided that the diffuseness data for a frame or time/frequency bin under consideration has a value different from zero, wherein the sound component generator is configured to perform an energy compensation for compensating the energy error when generating the first group of sound field components, the energy compensation depending on the diffuseness data and at least one of a number (K) of diffuse components in the first group, and a maximum order (H) of sound field components of the second group.
Removal unit for fluids for detachable connection to a fluid tank, having a head part , a foot part and at least one fluid line arranged therebetween and connected to both, as well as a fill level detector , the fluid line being designed as a multi-chamber tube , characterized in that the fluid line is designed to be non-detachably connected in one piece to the head part and/or the foot part and at least one fluid-conducting chamber is designed to be separated from at least one adjacent and adjoining fluid-guiding chamber by a common intermediate wall.
Timepiece , characterised in that it comprises: - a case in which a housing volume is made; - display hands pivotably mounted in the housing volume ; - a movement, configured to drive the display hands in rotation, one complete rotation of the display hands defining a sweeping surface ; - a display screen positioned in the housing volume below the level of the display hands, a first part of the sweeping surface being superimposed on said display screen and a second part of the sweeping surface not being superimposed on said display screen, characterised in that the timepiece further comprises: - a control circuit configured to sequentially switch between first and second operating modes, with: ∘ a first operating mode in which the control circuit controls the driving of the display hands in the first and second parts of the sweeping surface in order to display a piece of chronometric information; ∘ a second operating mode in which the control circuit controls the driving of the display hands only in the second part of the sweeping surface in order to display a piece of chronometric information and in which the control circuit controls the display of a piece of information by the display screen. - a case in which a housing volume is made; - display hands pivotably mounted in the housing volume ; - a movement, configured to drive the display hands in rotation, one complete rotation of the display hands defining a sweeping surface ; - a display screen positioned in the housing volume below the level of the display hands, a first part of the sweeping surface being superimposed on said display screen and a second part of the sweeping surface not being superimposed on said display screen, characterised in that the timepiece further comprises: - a control circuit configured to sequentially switch between first and second operating modes, with: ∘ a first operating mode in which the control circuit controls the driving of the display hands in the first and second parts of the sweeping surface in order to display a piece of chronometric information; ∘ a second operating mode in which the control circuit controls the driving of the display hands only in the second part of the sweeping surface in order to display a piece of chronometric information and in which the control circuit controls the display of a piece of information by the display screen. ∘ a first operating mode in which the control circuit controls the driving of the display hands in the first and second parts of the sweeping surface in order to display a piece of chronometric information; ∘ a second operating mode in which the control circuit controls the driving of the display hands only in the second part of the sweeping surface in order to display a piece of chronometric information and in which the control circuit controls the display of a piece of information by the display screen.