mhurhangee/ep-ind-claims huggingface dataset:
An electronic device, comprising: an inner shell defining a battery compartment, the battery compartment comprising a bottom surface and a side wall; a first adhesive adhered to the bottom surface of the battery compartment; an adhesive film covering and being adhered to the first adhesive, the bottom surface and the side wall of the battery compartment; a battery received in the battery compartment, and comprising a body having a lower surface, an upper surface opposite to the lower surface and a side surface, the adhesive film being adhered to the lower surface of the battery; and a second adhesive coated in spaces between a side surface of the battery and the adhesive film, wherein the first adhesive, the adhesive film and the second adhesive are configured in such a manner that the battery is capable of being removed without being damaged, while the adhesive film and the second adhesive are remained in the battery compartment during removal of the battery, wherein the battery further comprises a hand-pull strip, the hand-pull strip is fixedly disposed to the lower surface and the side surface, and extending out from a gap between the side wall and the side surface; and/or the hand-pull strip is fixedly disposed to the lower surface, the side surface and the upper surface. an inner shell defining a battery compartment, the battery compartment comprising a bottom surface and a side wall; a first adhesive adhered to the bottom surface of the battery compartment; an adhesive film covering and being adhered to the first adhesive, the bottom surface and the side wall of the battery compartment; a battery received in the battery compartment, and comprising a body having a lower surface, an upper surface opposite to the lower surface and a side surface, the adhesive film being adhered to the lower surface of the battery; and a second adhesive coated in spaces between a side surface of the battery and the adhesive film, wherein the first adhesive, the adhesive film and the second adhesive are configured in such a manner that the battery is capable of being removed without being damaged, while the adhesive film and the second adhesive are remained in the battery compartment during removal of the battery, wherein the battery further comprises a hand-pull strip, the hand-pull strip is fixedly disposed to the lower surface and the side surface, and extending out from a gap between the side wall and the side surface; and/or the hand-pull strip is fixedly disposed to the lower surface, the side surface and the upper surface.
Method for producing a battery cell, which includes at least the following steps: a) reshaping a first pouch foil into a first pouch half by means of a first molding device with a first recess; b) reshaping a second pouch foil into a second pouch half by means of a second molding device with a second recess; c) inserting a cell stack into the first molding device and the first pouch half located therein; d) thereafter bringing together the first molding device with the reshaped first pouch half located therein and the second molding device with the second pouch half located therein e) at least partially connecting the first and second pouch halves (13, 14) to form a battery cell. a) reshaping a first pouch foil into a first pouch half by means of a first molding device with a first recess; b) reshaping a second pouch foil into a second pouch half by means of a second molding device with a second recess; c) inserting a cell stack into the first molding device and the first pouch half located therein; d) thereafter bringing together the first molding device with the reshaped first pouch half located therein and the second molding device with the second pouch half located therein e) at least partially connecting the first and second pouch halves (13, 14) to form a battery cell.
A substrate (18, 202) comprising at least one textured major surface (22, 214) comprising an RMS roughness R q where 5 nm ≤ R q ≤ 75 nm, the texture of the textured major surface including a correlation length T where 0 nm < T ≤ 150 nm, the substrate further comprising a haze value equal to or less than 6.0% and a transmittance normal to the at least one major surface greater than 90% over a wavelength range from 400 nm to 700 nm.
A glass product, comprising: a glazing (12, 84, 100) having at least one glass sheet (26, 28, 32, 38, 42; 50, 54, 70, 86, 88, 106, 110); an opening (14, 31, 44, 55, 72, 80, 102, 114) extending through at least part of the glazing (12, 84, 100); and a stress generating member which extends through the opening (14, 31, 44, 55, 72, 80, 102, 114) and contacting an edge of the opening, wherein the stress generating member generates compressive stress in the glazing (12, 84, 100) around the opening (14, 31, 44, 55, 72, 80, 102, 114) in the inward radial direction of the opening. a glazing (12, 84, 100) having at least one glass sheet (26, 28, 32, 38, 42; 50, 54, 70, 86, 88, 106, 110); an opening (14, 31, 44, 55, 72, 80, 102, 114) extending through at least part of the glazing (12, 84, 100); and a stress generating member which extends through the opening (14, 31, 44, 55, 72, 80, 102, 114) and contacting an edge of the opening, wherein the stress generating member generates compressive stress in the glazing (12, 84, 100) around the opening (14, 31, 44, 55, 72, 80, 102, 114) in the inward radial direction of the opening.
A computer-implemented method for predicting collisions between a vehicle and one or more objects in the surroundings of the vehicle, comprising: a) acquiring information about one or more moving objects in the surroundings of the vehicle, the information comprising at least a range rate and a heading of each of the one or more objects in the surroundings of the vehicle; b) calculating one or more possible vehicle trajectories of the vehicle; c) for each object, calculating a plurality of possible object trajectories of the object from the range rate of the object, the heading of the object and a possible turn and acceleration of the object, the possible turn and/or acceleration values differing for each possible object trajectory the plurality of possible object trajectories representing the spatial bounds of possible object trajectories for a predetermined first confidence interval for the values, d) for each combination of calculated vehicle trajectory and object trajectory, performing a collision calculation to calculate whether the vehicle and object will be closer than a predetermined minimum distance to each other; and e) determining if, for one or more of the objects, at least a predetermined number of collision calculations indicate the vehicle and object will be closer than the predetermined minimum distance to each other. a) acquiring information about one or more moving objects in the surroundings of the vehicle, the information comprising at least a range rate and a heading of each of the one or more objects in the surroundings of the vehicle; b) calculating one or more possible vehicle trajectories of the vehicle; c) for each object, calculating a plurality of possible object trajectories of the object from the range rate of the object, the heading of the object and a possible turn and acceleration of the object, the possible turn and/or acceleration values differing for each possible object trajectory the plurality of possible object trajectories representing the spatial bounds of possible object trajectories for a predetermined first confidence interval for the values, d) for each combination of calculated vehicle trajectory and object trajectory, performing a collision calculation to calculate whether the vehicle and object will be closer than a predetermined minimum distance to each other; and e) determining if, for one or more of the objects, at least a predetermined number of collision calculations indicate the vehicle and object will be closer than the predetermined minimum distance to each other.
Rolling door which is designed as a high-speed door, having a curtain which can be rolled up and rolled down in a motorized manner in an, in particular, vertical plane and has a lower termination strip, and having guides which are arranged on both sides of the curtain and laterally guide the curtain, with the curtain being connected to at least one traction means which can be deflected out of a home position, and having a sensor for detecting the deflection of the traction means out of its home position, and having an evaluation unit for generating a signal in the event of a deflection of this kind, characterized in that the traction means is fixed to the termination strip such that it cannot be moved on both sides in an edge region of the said termination strip, and therefore the traction means can be moved together with the termination strip when the curtain is rolled up or rolled down, with the termination strip being designed to be deformable in the plane of the curtain.
Transmission module for a hybrid drive vehicle configured to be interposed between an internal combustion engine and a transmission of the vehicle, the module comprising: a tray-like support structure configured to be secured to the engine and defining a housing for a clutch, a hydraulic actuator for controlling the clutch including an annular chamber provided in the support structure and open towards the housing for the clutch, an annular piston axially movable in the annular chamber, a thrust member constrained in a rotationally free manner to the piston, coaxial thereto and configured to cooperate with a control member of the clutch under the thrust of the piston, and a bearing radially interposed between the annular piston and the thrust member, wherein the annular piston includes an internal tubular appendix extending from an axial end of the piston facing the housing of the clutch and bent axially in a direction opposite to the clutch, the bearing being interposed between said appendix and a sleeve of the thrust member housed inside the piston, and the thrust member includes a thrust portion axially facing the annular piston and connected to said sleeve by a substantially flat annular portion. a tray-like support structure configured to be secured to the engine and defining a housing for a clutch, a hydraulic actuator for controlling the clutch including an annular chamber provided in the support structure and open towards the housing for the clutch, an annular piston axially movable in the annular chamber, a thrust member constrained in a rotationally free manner to the piston, coaxial thereto and configured to cooperate with a control member of the clutch under the thrust of the piston, and a bearing radially interposed between the annular piston and the thrust member, wherein the annular piston includes an internal tubular appendix extending from an axial end of the piston facing the housing of the clutch and bent axially in a direction opposite to the clutch, the bearing being interposed between said appendix and a sleeve of the thrust member housed inside the piston, and the thrust member includes a thrust portion axially facing the annular piston and connected to said sleeve by a substantially flat annular portion.
Sensor device comprising a sensor and an anonymization unit, wherein the sensor is designed to generate a sensor data stream and wherein the sensor is coupled to the anonymization unit by a data path (20,21) which contains no digital memory or only volatile memory, the anonymization unit comprising: - an analyzation module for identifying pre-defined sensitive data (14,18) in the sensor data stream on the basis of a pre-defined privacy criterion; and - a replacement module for replacing the sensitive data (14,18) in the sensor data stream with pre-defined masking data such that the sensor data is anonym ized in the sensor data stream before any storing in a non-volatile memory (25,26), characterized in that the sensor is a LIDAR sensor and/or a radar sensor. - an analyzation module for identifying pre-defined sensitive data (14,18) in the sensor data stream on the basis of a pre-defined privacy criterion; and - a replacement module for replacing the sensitive data (14,18) in the sensor data stream with pre-defined masking data such that the sensor data is anonym ized in the sensor data stream before any storing in a non-volatile memory (25,26),
A method of separating target entities from a sample comprising target entities and non-target entities, said method comprising: (a) providing at least one mono-specific tetrameric antibody complex coupled to a surface, wherein the TAC includes a first antibody and a second antibody which are from a first animal species and which are held in a tetrameric array by two antibodies from a second animal species that recognize the Fc fragment of the first animal species, wherein the monospecific TAC is specific for a single target entity and wherein the first antibody and second antibody are identical antibodies that recognize the same antigenic epitope or are two different antibody clones that recognize different epitopes on the same target antigen or are different antibody clones that recognize different antigens expressed on the same target entity; (b) contacting the sample with the TAC coupled surface under conditions to allow binding of the TAC to the target entities to form a target entities-TAC coupled surface; and (c) separating the target entities-TAC coupled surface from the sample to separate the target entities from the non-target entities. (a) providing at least one mono-specific tetrameric antibody complex coupled to a surface, wherein the TAC includes a first antibody and a second antibody which are from a first animal species and which are held in a tetrameric array by two antibodies from a second animal species that recognize the Fc fragment of the first animal species, wherein the monospecific TAC is specific for a single target entity and wherein the first antibody and second antibody are identical antibodies that recognize the same antigenic epitope or are two different antibody clones that recognize different epitopes on the same target antigen or are different antibody clones that recognize different antigens expressed on the same target entity; (b) contacting the sample with the TAC coupled surface under conditions to allow binding of the TAC to the target entities to form a target entities-TAC coupled surface; and (c) separating the target entities-TAC coupled surface from the sample to separate the target entities from the non-target entities.
A texture projecting light bulb comprising: a light source; an integrator surrounding the light source, the integrator comprising an interior surface and at least one aperture; and an enclosure surrounding the integrator, wherein at least a portion of the enclosure is translucent; characterized in that the interior surface of the integrator comprises a specularly reflective material or is at least partially coated with a specularly reflective coating; or at least a portion of the enclosure is opaque or comprises a hot mirror; or at least a portion of the interior surface of the enclosure is capable of absorbing light; or further comprising a baffle disposed at least partially within the integrator; or at least a portion of the enclosure is spherical, and the aperture of the integrator is located at a center of the spherical portion of the enclosure. a light source; an integrator surrounding the light source, the integrator comprising an interior surface and at least one aperture; and an enclosure surrounding the integrator, wherein at least a portion of the enclosure is translucent; characterized in that the interior surface of the integrator comprises a specularly reflective material or is at least partially coated with a specularly reflective coating; or at least a portion of the enclosure is opaque or comprises a hot mirror; or at least a portion of the interior surface of the enclosure is capable of absorbing light; or further comprising a baffle disposed at least partially within the integrator; or at least a portion of the enclosure is spherical, and the aperture of the integrator is located at a center of the spherical portion of the enclosure.
A method for identifying one or more nucleic acid agents having a desired property from a mixture of candidate nucleic acid agents, wherein the mixture of candidate nucleic acid agents comprises a plurality of single stranded nucleic acids, the method comprising: a) providing a plurality of particles with the candidate nucleic acid agents immobilized thereon, wherein each of the plurality of particles comprises at most a subset of the candidate nucleic acid agents within said mixture; b) exposing the plurality of particles to a screening composition comprising a target moiety and a reference moiety, wherein an interaction of said candidate nucleic acid agents with the target moiety is indicated by a first signal, an interaction of said candidate nucleic acid agents with the reference moiety is indicated by a second signal, and an intensity of said first signal together with an intensity of said second signal for a particular particle provide a sorting parameter of the particular particle, wherein a concentration of the target moiety and a concentration of the reference moiety are respectively set at a value enabling the sorting parameter of about 0.05% to about 1% of the plurality of particles to be within a predetermined sorting range; c) isolating from said plurality of particles one or more selected particles having a sorting parameter within said predetermined sorting range, wherein the one or more selected particles comprises said one or more nucleic acid agents having the desired property; and d) identifying the one or more nucleic acid agents having the desired property from the one or more selected particles. a) providing a plurality of particles with the candidate nucleic acid agents immobilized thereon, wherein each of the plurality of particles comprises at most a subset of the candidate nucleic acid agents within said mixture; b) exposing the plurality of particles to a screening composition comprising a target moiety and a reference moiety, wherein an interaction of said candidate nucleic acid agents with the target moiety is indicated by a first signal, an interaction of said candidate nucleic acid agents with the reference moiety is indicated by a second signal, and an intensity of said first signal together with an intensity of said second signal for a particular particle provide a sorting parameter of the particular particle, wherein a concentration of the target moiety and a concentration of the reference moiety are respectively set at a value enabling the sorting parameter of about 0.05% to about 1% of the plurality of particles to be within a predetermined sorting range; c) isolating from said plurality of particles one or more selected particles having a sorting parameter within said predetermined sorting range, wherein the one or more selected particles comprises said one or more nucleic acid agents having the desired property; and d) identifying the one or more nucleic acid agents having the desired property from the one or more selected particles.
A population of isolated adherent amnion-chorion stem cells, wherein said amnion-chorion stem cells express the gene ELOVL2 at a level at least two-fold higher than an equivalent number of bone marrow-derived mesenchymal stem cells (BM-MSCs) that have been grown under equivalent conditions and have undergone the same number of passages in culture as said amnion-chorion stem cells, wherein said amnion-chorion stem cells are CD10 +, CD34 -, CD105 +, and CD200 +.
Nuclear power plant comprising a nuclear reactor and a reactor coolant circuit, further comprising a degasification system for a reactor coolant liquid circulating in the reactor coolant circuit, wherein the degasification system is an ultrasonic degasification system comprising a sonotrode cluster with at least one sonotrode, wherein each sonotrode is arranged within a flow-through cell in a line of the reactor coolant circuit or in a line which is fluidically connected to the reactor coolant circuit, characterized in that there is a separation vessel downstream to the flow-through cell and wherein the separation vessel is adapted to act as a gas separator for the reactor coolant liquid previously treated in the upstream sonotrode cluster.
A method of inter-layer prediction for scalable video coding, SVC, wherein video data is configured into a Base Layer, BL, and an Enhancement Layer, EL, and wherein EL video data has higher spatial resolution or better quality than BL video data, the method comprising: receiving first data associated with first EL video data of a current EL picture; and applying predictive decoding to the first data based on prediction data, wherein the prediction data includes Inter prediction data; determining a reference picture list comprising one or more reference pictures, wherein the reference picture list includes an inter-layer reference picture, ILRP, corresponding to BL texture frame or up-sampled BL texture frame; and generating the Inter prediction data for the first EL video data based on a block, referred to as candidate block, of a selected one of the one or more reference pictures in the reference picture list, wherein the Inter prediction data comprises a motion vector, MV, for the candidate block, characterized by the method further comprising: clipping the MV for the candidate block to within a range around (0,0) if the ILRP is selected as the reference picture to generate the Inter prediction data and the MV of the candidate block is not within a range around (0,0). receiving first data associated with first EL video data of a current EL picture; and applying predictive decoding to the first data based on prediction data, wherein the prediction data includes Inter prediction data; determining a reference picture list comprising one or more reference pictures, wherein the reference picture list includes an inter-layer reference picture, ILRP, corresponding to BL texture frame or up-sampled BL texture frame; and generating the Inter prediction data for the first EL video data based on a block, referred to as candidate block, of a selected one of the one or more reference pictures in the reference picture list, wherein the Inter prediction data comprises a motion vector, MV, for the candidate block, characterized by the method further comprising: clipping the MV for the candidate block to within a range around (0,0) if the ILRP is selected as the reference picture to generate the Inter prediction data and the MV of the candidate block is not within a range around (0,0).