mhurhangee/patent-ind-claim-en huggingface dataset:
A fluid container, consisting of at least two layers of cardboard composite material made of kraft paper wound into a hollow cylinder as a can body in a direction perpendicular to its axis, wherein the connecting seams of the at least two layers of cardboard composite material are in offset positions with respect to the periphery of the windings and one side of the open hollow cylinder thus formed is sealed using a bottom element and the other open side of the hollow cylinder, i.e. can body, is sealable or sealed using a lid with a seal in the same manner after being filled, characterised in that either its edges meet edge to edge in the direction of winding for the innermost layer while the innermost sheet of the innermost layer, i.e. the barrier sheet, overlaps the kraft paper on its edges in the direction of winding, or else the peripheral areas of the innermost layer overlap altogether in the direction of winding, wherein in both cases the overlaps abut at their barrier sheets following rectangular angulation away from the wound layer and are welded together and then folded over onto one side onto the layer and glued thereto while the peripheral areas of each further layer overlap in the direction of winding, wherein the overlapping areas are cut or sanded into a slope or forming a step at an oblique angle over their thickness such that the overlapping areas are positively placed on top of one another and the overlapping areas are not thicker than the thickness of the cardboard composite material itself.
An ophthalmologic microscope comprising i) an illumination device generating illumination pulses (L1, L2) and having a) at least one light source (22, 22a - 22d), b) an electronically controlled spatial light modulator comprising a two-dimensional array of micro-mirrors individually deflectable into a first and a second position, and c) illumination imaging optics , ii) a microscope device having a) microscope optics and b) at least one electronic camera , and iii) a control unit , wherein said control unit is structured to bring, for a group of N ≤ 100 consecutive frame cycles of said camera , each micro-mirror of said spatial light modulator into the first position during a time t1 and into the second position during a time t2, wherein 0.1 < t1/t2 < 10. i) an illumination device generating illumination pulses (L1, L2) and having a) at least one light source (22, 22a - 22d), b) an electronically controlled spatial light modulator comprising a two-dimensional array of micro-mirrors individually deflectable into a first and a second position, and c) illumination imaging optics , a) at least one light source (22, 22a - 22d), b) an electronically controlled spatial light modulator comprising a two-dimensional array of micro-mirrors individually deflectable into a first and a second position, and c) illumination imaging optics , ii) a microscope device having a) microscope optics and b) at least one electronic camera , and a) microscope optics and b) at least one electronic camera , and iii) a control unit , wherein said control unit is structured to bring, for a group of N ≤ 100 consecutive frame cycles of said camera , each micro-mirror of said spatial light modulator into the first position during a time t1 and into the second position during a time t2, wherein 0.1 < t1/t2 < 10.
A tibial trial system comprising: a base component having an upper surface and a lower surface; an articulating component having a superior surface and an inferior surface; and a rotary joint extending between the upper surface of the base and the inferior surface of the articulating component so that said articulating component can freely rotate relative to the base component ; characterised by at least one rotation sensor positioned on the upper surface and a processor to process a set of rotational data supplied from said at least one rotation sensor . a base component having an upper surface and a lower surface; an articulating component having a superior surface and an inferior surface; and a rotary joint extending between the upper surface of the base and the inferior surface of the articulating component so that said articulating component can freely rotate relative to the base component ; characterised by at least one rotation sensor positioned on the upper surface and a processor to process a set of rotational data supplied from said at least one rotation sensor .
An electromechanical relay comprising: an external housing ; a pair of switchable electrical contacts (104 and 106) disposed within the housing and movable between an open and a closed state; a pair of contact pads attached to electrical contacts comprising a backside surface , the pads having a backside portion , the pads being configured to make contact with each other when the contacts are in a closed state; an element for activating the pair of electrical contacts; and a temperature sensing element disposed within the housing adjacent the electrical contacts, the temperature sensing element being a contact or an infra-red sensors selected from one of the group comprising resistance temperature detectors (RTC); NTC thermistor or temperature sensors, transducers, silicon-based temperature sensors, thermopile or infrared temperature sensors; characterized in that the temperature sensing element is attached to a backside surface of the contact opposite the pad respectively. an external housing ; a pair of switchable electrical contacts (104 and 106) disposed within the housing and movable between an open and a closed state; a pair of contact pads attached to electrical contacts comprising a backside surface , the pads having a backside portion , the pads being configured to make contact with each other when the contacts are in a closed state; an element for activating the pair of electrical contacts; and a temperature sensing element disposed within the housing adjacent the electrical contacts, the temperature sensing element being a contact or an infra-red sensors selected from one of the group comprising resistance temperature detectors (RTC); NTC thermistor or temperature sensors, transducers, silicon-based temperature sensors, thermopile or infrared temperature sensors; characterized in that the temperature sensing element is attached to a backside surface of the contact opposite the pad respectively.
Method for controlling a light source , the method using (a) at least one pose estimate of a camera configured to capture one or more images of a scene of interest which comprises at least one landmark , as said light source is operated to emit light which illuminates said scene of interest, (b) a landmark map comprising at least 3D location information of a plurality of landmarks comprising the at least one landmark in the scene of interest, characterized in that the method further uses: (c) an illumination model describing a relationship between an emission illumination power and a reflection illumination power, wherein said emission illumination power is the power of light emitted by the light source to illuminate said scene of interest, and said reflection illumination power is the illumination power of light reflected by one or more landmarks in said scene of interest and received by the camera, and (d) a predefined threshold reflection illumination power , wherein the method comprises the following steps: (a) determining , for at least one of the plurality of landmarks, at least one optimized emission illumination power of light to be emitted by the light source, and an illumination time course during which the light source should be operated to emit light which has an emission illumination power which is equal to the at least one optimized emission illumination power, using (i) the at least one pose estimate of the camera, (ii) the 3D location information of the at least one of the plurality of landmarks, (iii) the illumination model , and (iv) the predefined threshold reflection illumination power ; and (b) operating the light source to emit light which has an emission illumination power which is equal to the at least one optimized emission illumination power , for a time period which is equal to the determined illumination time course . (a) determining , for at least one of the plurality of landmarks, at least one optimized emission illumination power of light to be emitted by the light source, and an illumination time course during which the light source should be operated to emit light which has an emission illumination power which is equal to the at least one optimized emission illumination power, using (i) the at least one pose estimate of the camera, (ii) the 3D location information of the at least one of the plurality of landmarks, (iii) the illumination model , and (iv) the predefined threshold reflection illumination power ; and (b) operating the light source to emit light which has an emission illumination power which is equal to the at least one optimized emission illumination power , for a time period which is equal to the determined illumination time course .
A method for depositing a thin semiconductor layer (CM) comprising at least one sulphide of a metal species, the deposition being carried out on a semiconductor film (F) arranged in a chemical bath (CM), the method comprising the steps of: - preparing (SI) the chemical bath (BC) from at least one sulphur precursor of said sulphide of a metal species and of a salt containing said at least one metal species, the at least one sulphur precursor containing a thioacid of general formula R-COSH encompassing prototropic forms of R-C(=O)SH type and of R-C(=S)OH type, where R designates a hydrogen or an organic group, and - forming (S3) the thin layer (CM) by illumination of the chemical bath (BC) and of the semiconductor film (F) by means of a light source (S). - preparing (SI) the chemical bath (BC) from at least one sulphur precursor of said sulphide of a metal species and of a salt containing said at least one metal species, the at least one sulphur precursor containing a thioacid of general formula R-COSH encompassing prototropic forms of R-C(=O)SH type and of R-C(=S)OH type, where R designates a hydrogen or an organic group, and - forming (S3) the thin layer (CM) by illumination of the chemical bath (BC) and of the semiconductor film (F) by means of a light source (S).
A sustained release preparation for use in controlling an insect pest, the preparation comprising: - a polymer tube having a sharp end, and - a gel composition in the polymer tube, the composition comprising one or more volatile substances and an oil gelling agent, wherein said one or more volatile substances are comprised in an amount of from 70.0 to 99.0% by weight by the gel composition and are released outside of the polymer tube through the polymer tube; said oil gelling agent is selected from the group consisting of a long-chain fatty acid which is a saturated or unsaturated fatty acid having 8 to 24 carbon atoms and a dextrin fatty acid ester. - a polymer tube having a sharp end, and - a gel composition in the polymer tube,
A method of operating a computing system to generate a model of an environment represented by a mesh, the method comprising: segmenting the mesh into a plurality of first mesh blocks; performing a first simplification operation to reduce a complexity of each of a plurality of selected first mesh blocks to generate a plurality of second mesh blocks; characterized by further comprising: performing a region-based operation to detect a shape of each of the second mesh blocks to generate a plurality of third mesh blocks, wherein the region-based operation comprises a planarization operation in which the shape that is detected is a plane; and performing a second simplification operation to simplify each of the third mesh blocks to reach a desired level of complexity to generate fourth mesh blocks. segmenting the mesh into a plurality of first mesh blocks; performing a first simplification operation to reduce a complexity of each of a plurality of selected first mesh blocks to generate a plurality of second mesh blocks; characterized by further comprising: performing a region-based operation to detect a shape of each of the second mesh blocks to generate a plurality of third mesh blocks, wherein the region-based operation comprises a planarization operation in which the shape that is detected is a plane; and performing a second simplification operation to simplify each of the third mesh blocks to reach a desired level of complexity to generate fourth mesh blocks. performing a region-based operation to detect a shape of each of the second mesh blocks to generate a plurality of third mesh blocks, wherein the region-based operation comprises a planarization operation in which the shape that is detected is a plane; and performing a second simplification operation to simplify each of the third mesh blocks to reach a desired level of complexity to generate fourth mesh blocks.
Power supply control module of an electric motor comprising a rotor/stator assembly, the power supply control module comprising a printed circuit board drilled with a plurality of through-holes respectively associated with an electrical contact pad borne by said board in the vicinity of each of these through-holes, the electrical contact pads being configured to be secured to motor connector elements secured to the stator and extending parallel to the axis of rotation of the rotor about the stator, wherein the electrical contact pads are positioned on a face of the printed circuit board in such a way that a virtual circle can be defined that passes substantially through each of the contact pads , said pads being concentrated on a part of the printed circuit board so as to form a circular arc of a length smaller than half the circumference of said virtual circle, the printed circuit board comprising a plurality of electronic devices and at least one electrical track configured to link the electronic devices to one another as well as to electrical power supply means and to said electrical contact pads characterized in that the electrical track or tracks are arranged at the periphery of the printed circuit board , around said through-holes and the associated electrical contact pads .
A polymer composition for fibers or non-woven fabrics, comprising: a vinyl aromatic based copolymer represented by a formula of A1-B-A2, wherein block A1 and block A2 represent identical or different vinyl aromatic blocks, block A1 or block A2 has a peak molecular weight of 3,800-4,800, measured according to the method described in the specification, block B represents a hydrogenated conjugated diene block, a vinyl structure content of a conjugated diene monomer content in the vinyl aromatic based copolymer is 32 wt%~50 wt%, and a melt flow index (MFI) of the vinyl aromatic based copolymer is 20 g/10 min~60 g/10 min (230°C, 2.16 kg); and an olefin based polymer of 0~30 wt% based on a total weight of the polymer composition.
A propeller fan comprising: a rotation-axis part that serves as a center of rotation of the propeller fan ; and a plurality of blades provided on an outer circumferential side of the rotation-axis part , the plurality of blades each being joined at an leading edge of the blade to a trailing edge of an adjoining blade of the blades , the propeller fan having a first rib provided on pressure surfaces of the plurality of blades , the first rib projecting toward a downstream side in an airflow a direction and surrounding the rotation-axis part , and second ribs provided on pressure surfaces of the plurality of blades , the second ribs projecting toward the downstream side in the airflow direction and extending from the rotation-axis part toward the first rib , and characterized by that axially downstream ends of the second ribs are located on the downstream side of an axially downstream end of the first rib in the airflow direction. a rotation-axis part that serves as a center of rotation of the propeller fan ; and a plurality of blades provided on an outer circumferential side of the rotation-axis part , the plurality of blades each being joined at an leading edge of the blade to a trailing edge of an adjoining blade of the blades , the propeller fan having a first rib provided on pressure surfaces of the plurality of blades , the first rib projecting toward a downstream side in an airflow a direction and surrounding the rotation-axis part , and second ribs provided on pressure surfaces of the plurality of blades , the second ribs projecting toward the downstream side in the airflow direction and extending from the rotation-axis part toward the first rib , and characterized by that axially downstream ends of the second ribs are located on the downstream side of an axially downstream end of the first rib in the airflow direction.
A control method for a vehicle having a continuously variable transmission (CVT), the control method for controlling the height of a linkage on the vehicle and/or on an implement coupled with the vehicle, the control method comprising the steps of: detecting an input draft force by sensors in the CVT or a driveline ; processing said input draft force to provide an output draft force upon which movement of the linkage is based; and raising and lowering the linkage based on the output draft force, characterised in that the step of processing comprises at least one of the following: compensating the input draft force detected during acceleration or deceleration, compensating the input draft detected whilst travelling along a slope, equalising the input draft force by applying a ramp function, and/or reducing the input draft force when the linkage is at a predetermined height. detecting an input draft force by sensors in the CVT or a driveline ; processing said input draft force to provide an output draft force upon which movement of the linkage is based; and raising and lowering the linkage based on the output draft force, compensating the input draft force detected during acceleration or deceleration, compensating the input draft detected whilst travelling along a slope, equalising the input draft force by applying a ramp function, and/or reducing the input draft force when the linkage is at a predetermined height.
A method for use in a wireless transmit/receive unit, WTRU , the method comprising: performing a first Discrete Fourier Transform, DFT, precoding operation on a first data symbol sequence segment from a plurality of data symbol sequence segments to generate a first DFT precoded segment ; performing a first Space Frequency Block Coding, SFBC, operation on the first DFT precoded segment to generate a first SFBC processed segment ; transmitting a first Discrete Fourier Transform spread Orthogonal Frequency Division Multiplexing, DFT-s-OFDM, signal on a first set of contiguous subcarriers determined based on the first DFT precoded segment via a first antenna port and a second DFT-s-OFDM signal on a second set of contiguous subcarriers determined based on the first SFBC processed segment via a second antenna port , wherein the first SFBC operation is applied onto paired symbols transmitted on paired subcarriers and wherein a number of the plurality of data symbol sequence segments is determined based on a desired largest separation between subcarriers in the paired subcarriers. performing a first Space Frequency Block Coding, SFBC, operation on the first DFT precoded segment to generate a first SFBC processed segment ; transmitting a first Discrete Fourier Transform spread Orthogonal Frequency Division Multiplexing, DFT-s-OFDM, signal on a first set of contiguous subcarriers determined based on the first DFT precoded segment via a first antenna port and a second DFT-s-OFDM signal on a second set of contiguous subcarriers determined based on the first SFBC processed segment via a second antenna port , wherein the first SFBC operation is applied onto paired symbols transmitted on paired subcarriers and wherein a number of the plurality of data symbol sequence segments is determined based on a desired largest separation between subcarriers in the paired subcarriers.
Method for providing vehicle functions in a motor vehicle , wherein the vehicle functions are provided in a calculation device of the motor vehicle on the basis of sensor data from a sensor device of the motor vehicle , wherein in the motor vehicle , the vehicle functions are coupled to the sensor device via an integration component of the calculation device of the motor vehicle , and the integration component procures the sensor data from a sensor unit or from several sensor units of the sensor device independently of the vehicle functions by means of a respective sensor-specific acquisition routine and from said data generates the respective status data , and each of the vehicle functions respectively retrieves at least some of the provided status data from the integration component by means of a sensor-independent retrieval routine , in that the integration component provides the status data at a retrieval interface accessible to all vehicle functions , and the provided status data are selected and retrieved by the respective retrieval routine at the retrieval interface , wherein the integration component is coupled to a communication device , and the communication device operates a respective communication connection to at least one external device external to the vehicle as a respective component of an offboard level , wherein the respective external device external to the vehicle is a mobile terminal present in the motor vehicle or an internet server or another motor vehicle, and the integration component receives source data via the communication device , wherein the components of the offboard level are provided as data suppliers for the source data , and the integration component produces from said data further status data for the vehicle functions provided in the motor vehicle , wherein the vehicle functions also retrieve these additional status data by means of at least one retrieval routine , characterised in that at least one vehicle function is coupled to at least one sensor unit of the sensor device via a direct connection bypassing the integration component , and receives from the sensor unit its sensor data with a data rate which is greater than a data rate provided by the integration component for retrieval of the status data , and wherein the vehicle functions and an actuator device of the motor vehicle are coupled via the integration component , and at least one of the vehicle functions generates, depending on the respective status data retrieved by the vehicle function , command data for controlling at least one actuator of the actuator device , and the vehicle function emits the command data to the integration component by means of an actuator-independent calling routine , and the integration component converts the command data into respective actuator-specific control data and transmits the control data to the respective actuator by means of an actuator-specific activation routine .