mhurhangee/patent-ind-claim-en huggingface dataset:
An integrated hybrid power assembly, comprising: a transmission comprising a gear train , a front housing and a rear housing wherein the transmission further comprises a transmission controlling module mounted on the rear housing ; a drive motor comprising a motor housing integral to the rear housing and a motor cover mounted to the motor housing ; a speed reducer comprising a reducer housing and a reducer cover mounted to the reducer housing , and characterized in that the reducer housing is connected to the rear housing and integral to the motor cover , and a starting motor mounted to the transmission wherein the starting motor is connected to the front housing ; and a parking mechanism mounting portion disposed on the rear housing and located at a first side of a connecting part between the motor housing and the rear housing , further comprising a parking mechanism cover mounted on the parking mechanism mounting portion; wherein, when viewed along a direction from the rear housing to the front housing , the structure of the integrated hybrid power assembly has a triangle shape with the drive motor located at the top, the transmission controlling module located at the bottom left corner, and the gear train is located at the bottom right corner, wherein the starting motor is arranged substantially between the drive motor and the transmission controlling module , and the parking mechanism cover is arranged substantially between the drive motor and the gear train . a transmission comprising a gear train , a front housing and a rear housing wherein the transmission further comprises a transmission controlling module mounted on the rear housing ; a drive motor comprising a motor housing integral to the rear housing and a motor cover mounted to the motor housing ; a speed reducer comprising a reducer housing and a reducer cover mounted to the reducer housing , and characterized in that the reducer housing is connected to the rear housing and integral to the motor cover , and a starting motor mounted to the transmission wherein the starting motor is connected to the front housing ; and a parking mechanism mounting portion disposed on the rear housing and located at a first side of a connecting part between the motor housing and the rear housing , further comprising a parking mechanism cover mounted on the parking mechanism mounting portion; wherein, when viewed along a direction from the rear housing to the front housing , the structure of the integrated hybrid power assembly has a triangle shape with the drive motor located at the top, the transmission controlling module located at the bottom left corner, and the gear train is located at the bottom right corner, wherein the starting motor is arranged substantially between the drive motor and the transmission controlling module , and the parking mechanism cover is arranged substantially between the drive motor and the gear train .
A ring-opened copolymer comprising structural units derived from a norbornene compound represented by General Formula below and structural units derived from cyclopentene, wherein relative to the total repeating structural units in the ring-opened copolymer, the proportion of the structural units derived from a norbornene compound is 25 to 90 wt%, and the proportion of the structural units derived from cyclopentene is 10 to 75 wt%, the weight average molecular weight of the ring-opened copolymer is 100,000 to 1,000,000, and the cis/trans ratio of the ring-opened copolymer is 0/100 to 50/50, wherein R 1 to R 4 are each a hydrogen atom, a linear hydrocarbon group having 1 to 20 carbon atoms, or a substituent containing a halogen atom, a silicon atom, an oxygen atom, or a nitrogen atom, R 1 to R 4 are not linked together so that R 1 to R 4 do not form a ring and "m" is 0, and wherein the ring-opened copolymer has a glass transition temperature of -70 to 10°C. wherein relative to the total repeating structural units in the ring-opened copolymer, the proportion of the structural units derived from a norbornene compound is 25 to 90 wt%, and the proportion of the structural units derived from cyclopentene is 10 to 75 wt%, the weight average molecular weight of the ring-opened copolymer is 100,000 to 1,000,000, and the cis/trans ratio of the ring-opened copolymer is 0/100 to 50/50, wherein R 1 to R 4 are each a hydrogen atom, a linear hydrocarbon group having 1 to 20 carbon atoms, or a substituent containing a halogen atom, a silicon atom, an oxygen atom, or a nitrogen atom, R 1 to R 4 are not linked together so that R 1 to R 4 do not form a ring and "m" is 0, and wherein the ring-opened copolymer has a glass transition temperature of -70 to 10°C.
Method for manufacturing a component for an electric machine from a laminated core , which has a plurality of grooves and a central axis, and a plurality of wire elements , wherein each wire element has two legs of wire, which are connected to one another by a bend of wire, wherein at least the legs of the wire elements are arranged parallel to the axis in the grooves , wherein the bends of the wire elements are arranged in a plurality of annular layers relative to the axis of the laminated core , wherein one bend from one respective layer has a layer-dependent distance from the axis of the laminated core , wherein one bend of the at least one wire element is additionally deformed such that a tip is produced, wherein this bend is accessible from the outside, characterized in that the one bend of the at least one wire element , which is provided for securing the temperature sensor , is arranged in a middle layer, which compared to all of the bends of all wire elements has a middle distance from the axis of the laminated core , wherein afterwards a temperature sensor is mounted and secured to the tip of the externally accessible bend of the at least one wire element .
A method for producing a three-dimensional object comprising: a. Computing, after obtaining a three dimensional computer model or a three dimensional scan of said object, a sequence of back-projections describing the three-dimensional object to be formed from different orientation angles of said object, b. defining a sequence of patterns of light using said back-projections, and c. irradiating, with each of said patterns of light at the respective corresponding orientation angle and according to the defined sequence, a photoresponsive material , that is capable of alteration of its material phase upon irradiation by light, thereby creating a three-dimensional distribution of alterations within the photoresponsive medium which physically reproduces said three-dimensional object, thereby creating the three-dimensional object, characterized in that the alterations of said photoresponsive medium are recordedduring the irradiation with said patterns of light , and these recordings are used as feedback to correct or adjust subsequent patterns of light in order to produce said three-dimensional object with improved accuracy. a. Computing, after obtaining a three dimensional computer model or a three dimensional scan of said object, a sequence of back-projections describing the three-dimensional object to be formed from different orientation angles of said object, b. defining a sequence of patterns of light using said back-projections, and c. irradiating, with each of said patterns of light at the respective corresponding orientation angle and according to the defined sequence, a photoresponsive material , that is capable of alteration of its material phase upon irradiation by light, thereby creating a three-dimensional distribution of alterations within the photoresponsive medium which physically reproduces said three-dimensional object, thereby creating the three-dimensional object, characterized in that the alterations of said photoresponsive medium are recordedduring the irradiation with said patterns of light , and these recordings are used as feedback to correct or adjust subsequent patterns of light in order to produce said three-dimensional object with improved accuracy.
A smoking set , comprising a cavity and a heater , wherein the heater is configured to heat a cigarette removably placed within the cavity to generate an aerosol for smoking, and further comprising: a cover ; a driving apparatus , configured to drive the cover to move relative to the cavity , so as to open or cover the cavity ; characterized in that it further comprises: a first detection apparatus , provided downstream of the cover , the first detection apparatus being configured to detect whether there is a cigarette to be inserted into the cavity , and if it is detected that there is a cigarette to be inserted into the cavity , output a cigarette insertion signal; and a controller , configured to acquire the cigarette insertion signal, and control, according to the cigarette insertion signal, the driving apparatus to drive the cover to move relative to the cavity, so as to open the cavity such that the cigarette can be inserted into the cavity . a cover ; a driving apparatus , configured to drive the cover to move relative to the cavity , so as to open or cover the cavity ; characterized in that it further comprises: a first detection apparatus , provided downstream of the cover , the first detection apparatus being configured to detect whether there is a cigarette to be inserted into the cavity , and if it is detected that there is a cigarette to be inserted into the cavity , output a cigarette insertion signal; and a controller , configured to acquire the cigarette insertion signal, and control, according to the cigarette insertion signal, the driving apparatus to drive the cover to move relative to the cavity, so as to open the cavity such that the cigarette can be inserted into the cavity . a first detection apparatus , provided downstream of the cover , the first detection apparatus being configured to detect whether there is a cigarette to be inserted into the cavity , and if it is detected that there is a cigarette to be inserted into the cavity , output a cigarette insertion signal; and a controller , configured to acquire the cigarette insertion signal, and control, according to the cigarette insertion signal, the driving apparatus to drive the cover to move relative to the cavity, so as to open the cavity such that the cigarette can be inserted into the cavity .
An apparatus for spatial audio encoding comprising: means for receiving or determining for one or more audio signals, spatial audio parameters on a sub band basis for providing spatial audio reproduction, wherein the spatial audio parameters comprise a coherence value for each sub band of a plurality of sub-bands of a frame; means for receiving an energy ratio value for each of the plurality of sub bands; means for determining a significance measure for the coherence values of the plurality of sub bands of the frame; and means for using the significance measure to determine whether to encode the coherence values of the plurality of sub bands of the frame, wherein the apparatus is characterized in that the means for determining the significance measure for the coherence values of the plurality of sub bands of the frame comprises: means for determining a proportion of coherent non-directional energy for each of the plurality of sub bands, wherein the proportion of coherent non-directional energy for a sub band is determined as a non-directional energy ratio for the sub band multiplied by the coherence value for the sub band, wherein the non-directional energy ratio is related to the ratio of energy in the sub band remaining after the energy ratio value for the sub band has been removed; and means for summing, for all the plurality of sub bands, the determined proportion of coherent non-directional energy. means for receiving or determining for one or more audio signals, spatial audio parameters on a sub band basis for providing spatial audio reproduction, wherein the spatial audio parameters comprise a coherence value for each sub band of a plurality of sub-bands of a frame; means for receiving an energy ratio value for each of the plurality of sub bands; means for determining a significance measure for the coherence values of the plurality of sub bands of the frame; and means for determining a proportion of coherent non-directional energy for each of the plurality of sub bands, wherein the proportion of coherent non-directional energy for a sub band is determined as a non-directional energy ratio for the sub band multiplied by the coherence value for the sub band, wherein the non-directional energy ratio is related to the ratio of energy in the sub band remaining after the energy ratio value for the sub band has been removed; and means for summing, for all the plurality of sub bands, the determined proportion of coherent non-directional energy.
A method for dynamically generating and rendering an object bounding fence in a mixed-reality scene, the method comprising: accessing a spatial mapping of an environment , the spatial mapping including perimeter edge data describing one or more perimeter edge(s) of an object located within the environment; wherein the perimeter edge data describes a portion, but not all, of the one or more perimeter edge(s) of the object such that the perimeter edge data constitutes incomplete data, and wherein the spatial mapping is a sparse spatial mapping as a result of including the incomplete data for the object; generating a gravity vector of a head-mounted device (HMD) that is operating in the environment and that is displaying a mixed-reality scene; based on the perimeter edge data and the gravity vector, determining two-dimensional boundaries of the object within the environment; generating a bounding fence mesh of the environment, the bounding fence mesh identifying the 2D boundaries of the object within the environment; and rendering , within the mixed-reality scene, a virtual object that is representative of at least a portion of the bounding fence mesh and that visually illustrates a bounding fence around the object; wherein a visualization of a 2D bird's eye view of the environment is generated using the spatial mapping of the environment and is displayed within the mixed reality scene; wherein when the HMD determines that the HMD is located within a predetermined or pre-established threshold distance to the object, then the HMD triggers the display of the bird's eye view . accessing a spatial mapping of an environment , the spatial mapping including perimeter edge data describing one or more perimeter edge(s) of an object located within the environment; wherein the perimeter edge data describes a portion, but not all, of the one or more perimeter edge(s) of the object such that the perimeter edge data constitutes incomplete data, and wherein the spatial mapping is a sparse spatial mapping as a result of including the incomplete data for the object; generating a gravity vector of a head-mounted device (HMD) that is operating in the environment and that is displaying a mixed-reality scene; based on the perimeter edge data and the gravity vector, determining two-dimensional boundaries of the object within the environment; generating a bounding fence mesh of the environment, the bounding fence mesh identifying the 2D boundaries of the object within the environment; and rendering , within the mixed-reality scene, a virtual object that is representative of at least a portion of the bounding fence mesh and that visually illustrates a bounding fence around the object; wherein a visualization of a 2D bird's eye view of the environment is generated using the spatial mapping of the environment and is displayed within the mixed reality scene; wherein when the HMD determines that the HMD is located within a predetermined or pre-established threshold distance to the object, then the HMD triggers the display of the bird's eye view .
A spring portion of a spring brake actuator, in particular parking or emergency spring brake actuator, for use in a commercial vehicle, said spring portion being configured to be coupled to a service brake portion of the spring brake actuator, and comprising - a spring brake piston configured to move between a release position and a braking position; - a compression spring that is operatively coupled to the spring brake piston and effective to push the spring brake piston towards the braking position, generating a braking force; - the spring brake piston comprising a piston pipe that is configured to transfer the braking force to the service brake portion; - a coupling that is interposed between the piston pipe and the spring brake piston and configured to move between a locking state and a release state, couple the piston pipe to the spring brake piston when in the locking state, and uncouple the piston pipe and the spring brake piston when in the release state; wherein a rotatable release rod is operatively coupled to the coupling such that a rotation of the release rod causes the coupling to move between the locking state and the release state, characterized in that the coupling comprises a number of locking elements that are radially movably mounted inside the spring portion and configured to positively lock the piston pipe and the spring brake piston when in the locking state, wherein the spring brake piston comprises a sleeve that is configured to slidably hold the piston pipe , wherein the sleeve comprises at least one recess that is configured to receive the locking elements in the locking state, wherein the coupling comprises a support ring that is slidably mounted on the piston pipe adjacent to the sleeve, and an elastically deformable member that is operatively coupled to the support ring and effective to bias the support ring towards the sleeve. - a spring brake piston configured to move between a release position and a braking position; - a compression spring that is operatively coupled to the spring brake piston and effective to push the spring brake piston towards the braking position, generating a braking force; - the spring brake piston comprising a piston pipe that is configured to transfer the braking force to the service brake portion; - a coupling that is interposed between the piston pipe and the spring brake piston and configured to move between a locking state and a release state,
An e-charger comprising: an outer housing ; a rotor that is supported for rotation within the outer housing; a motor assembly that is housed within the outer housing, the motor assembly including an electric motor and a motor case , the electric motor encased within the motor case, the electric motor configured to drivingly rotate the rotor within the outer housing ; and a cooling system configured to receive a coolant, the cooling system including a manifold passage defined in the outer housing, characterized in that the manifold passage including an intake reservoir extending longitudinally within the outer housing , a first port , and a second port , the cooling system including a first motor cooling circuit and a second motor cooling circuit that are downstream of the manifold passage and cooperatively defined by the outer housing and the motor case , the first port fluidly connecting the intake reservoir to the first motor cooling circuit and the second port fluidly connecting the intake reservoir to the second motor cooling circuit , the manifold passage configured to distribute a flow of the coolant between the first motor cooling circuit and the second motor cooling circuit . an outer housing ; a rotor that is supported for rotation within the outer housing; a motor assembly that is housed within the outer housing, the motor assembly including an electric motor and a motor case , the electric motor encased within the motor case, the electric motor configured to drivingly rotate the rotor within the outer housing ; and a cooling system configured to receive a coolant, the cooling system including a manifold passage defined in the outer housing, characterized in that the manifold passage including an intake reservoir extending longitudinally within the outer housing , a first port , and a second port , the cooling system including a first motor cooling circuit and a second motor cooling circuit that are downstream of the manifold passage and cooperatively defined by the outer housing and the motor case , the first port fluidly connecting the intake reservoir to the first motor cooling circuit and the second port fluidly connecting the intake reservoir to the second motor cooling circuit , the manifold passage configured to distribute a flow of the coolant between the first motor cooling circuit and the second motor cooling circuit .
A shielded electrical connector for connecting shielded electrical lines or plug-in connectors to one another, comprising: - one or more conductor elements belonging to at least one line or at least one plug-in connector ; - one or more shielding sleeves or shielding casings belonging to at least one line or at least one electrical plug-in connector ; - a shielding housing either connecting a plurality of shielding sleeves with one another, or connecting at least one shielding sleeve to at least one shielding casing , or connecting a plurality of shielding casings with one another, or forming part of the shielding casing; and - an intermediate insulating body made of temperature-resistant, electrically insulating material; characterised in that the shielding housing consists of a cast metal body that has been cast in situ from liquid metal or liquid metal alloy on and around annular portions of the one or more shielding sleeves or the one or more shielding casings , where it establishes an anchoring means having a low electrical contact resistance and provides complete shielding of the electrical connector; and that the shielding housing has been cast in situ at least partially onto the intermediate insulating body , and wherein the intermediate insulating body protects the one or more conductor elements during the casting process of the shielding housing . - one or more conductor elements belonging to at least one line or at least one plug-in connector ; - one or more shielding sleeves or shielding casings belonging to at least one line or at least one electrical plug-in connector ; - a shielding housing either connecting a plurality of shielding sleeves with one another, or connecting at least one shielding sleeve to at least one shielding casing , or connecting a plurality of shielding casings with one another, or forming part of the shielding casing; and - an intermediate insulating body made of temperature-resistant, electrically insulating material;
A calibration system for calibrating a radio frequency, RF, device comprising a plurality of signal paths , each signal path comprising at least an amplifier and an antenna element , the system comprising: a signal generator for driving the signal paths with a predetermined test signal , at least two probes for measuring the output of the signal paths in reaction to the test signal , and a correction factor calculator for calculating respective correction factors based on differences in at least one characteristic of the measured outputs of the signal paths , characterized in that the correction factor calculator is adapted to identify a lowest value of the measured output of the signal paths , and to calculate the correction factors for the output of all signal paths being equal within a predetermined acceptance interval. a signal generator for driving the signal paths with a predetermined test signal , at least two probes for measuring the output of the signal paths in reaction to the test signal , and a correction factor calculator for calculating respective correction factors based on differences in at least one characteristic of the measured outputs of the signal paths , characterized in that the correction factor calculator is adapted to identify a lowest value of the measured output of the signal paths , and to calculate the correction factors for the output of all signal paths being equal within a predetermined acceptance interval.