mhurhangee/ep-ind-claims huggingface dataset:
An oven comprising - a body that surrounds an oven cavity wherein the cooking process is performed, - a heater that provides the cooking of the foodstuffs placed in the body, - an insulator which reduces heat loss from the body by being covered around the body and - at least one thermostat which is disposed on the body and which provides the operation of the heater to be stopped when its temperature exceeds an upper limit temperature (T lim) determined by the producer, characterized by a protector placed between the thermostat and the insulator and which prevents the insulator from contacting the thermostat. - a body that surrounds an oven cavity wherein the cooking process is performed, - a heater that provides the cooking of the foodstuffs placed in the body, - an insulator which reduces heat loss from the body by being covered around the body and - at least one thermostat which is disposed on the body and which provides the operation of the heater to be stopped when its temperature exceeds an upper limit temperature (T lim) determined by the producer, characterized by a protector placed between the thermostat and the insulator and which prevents the insulator from contacting the thermostat.
A multimodal propylene butene random copolymer having a melt flow rate (MFR 2) of 1.0 to 20.0 g/10 min, measured according to ISO 1133 at 230°C under 2.16 kg load, and a butene content of 1.5 to 8.0 wt%, measured as described in the description, wherein said copolymer is prepared using a single site catalyst and wherein said copolymer comprises: (i) 30 to 70 wt% of a propylene butene copolymer having an MFR 2 of 0.5 to 20.0 g/10 min and a butene content of 0.5 to 10.0 wt%; and (ii) 70 to 30 wt% of a propylene butene copolymer having an MFR 2 of 0.5 to 20.0 g/10 min and a butene content of 1.0 to 8.0 wt%; wherein copolymers and are different, and wherein said multimodal propylene butene random copolymer comprises less than 0.1 wt% ethylene, measured as described in the description. (i) 30 to 70 wt% of a propylene butene copolymer having an MFR 2 of 0.5 to 20.0 g/10 min and a butene content of 0.5 to 10.0 wt%; and (ii) 70 to 30 wt% of a propylene butene copolymer having an MFR 2 of 0.5 to 20.0 g/10 min and a butene content of 1.0 to 8.0 wt%;
An optical head-up display, near-to-eye display or exit pupil expander device comprising - a light-guiding transparent substrate,, - an out-coupling grating on or within the substrate, the grating comprising a first transparent grating layer which further comprises periodically alternating zones, having different refractive indices, characterized in that the grating further comprises a second transparent grating layer located on the first grating layer and also comprising periodically alternating zones, having different refractive indices so that the zones of the first grating layer having higher refractive index are at least partly aligned with the zones of the second grating layer having lower refractive index and vice versa, the second grating layer reducing the amount of light diffracted to non-zero transmission orders. - a light-guiding transparent substrate,, - an out-coupling grating on or within the substrate, the grating comprising a first transparent grating layer which further comprises periodically alternating zones, having different refractive indices,
A mold for thermally bending automotive glass, comprising a fixed frame and two movable frames, the two movable frames are respectively hinged to the left and the right ends of the fixed frame, the two movable frames can be rotated about the respective hinged connection points, so as to form a bending surface with the fixed frame, and the bending surface has a curvature equal to the curvature of the resultant shape of the thermally bent automotive glass, wherein a curvature adjusting device is correspondingly additionally provided at the bottom of each movable frame, each curvature adjusting device comprises two sidings, two hooks and an adjusting lever, the adjusting lever is hinged to the bottom surface of the movable frame on the same side, the adjusting lever is in parallel to the connection line of the two hinged connection points of the movable frame on the same side and the fixed frame, the bottom ends of the two hooks are respectively fixed to the two ends of the adjusting lever, and the top ends of the two hooks are respectively hung on the two corresponding sidings at adjustable positions.
A zoom lens comprising, in order from an object: a first lens group having positive refractive power; a second lens group having negative refractive power; a third lens group having positive refractive power; and a fourth lens group having positive refractive power, an aperture stop is disposed between the second lens group and the third lens group, and the following conditional expression being satisfied: 0.10 < fw / LG 2 < 0.64 where fw denotes a focal length of the zoom lens in the wide-angle end state and LG2 denotes a lens configuration length of the second lens group, wherein the first group moving toward an image once then moving toward the object, upon zooming from a wide-angle end state to a telephoto end state, and the following conditional expressions being satisfied: 0.050 < fw / TLw < 0.100 0.10 < ft / TLt < 0.80 where ft denotes a focal length of the zoom lens in the telephoto end state, TLw denotes a total length of the zoom lens in the wide-angle end state, and TLt denotes a total length of the zoom lens in the telephoto end state, wherein the following conditional expression is satisfied: 0.3 < ft / fG 1 < 1.0 where fG1 denotes a focal length of the first lens group, and wherein the following conditional expression is satisfied: 0.75 < fw / LG 1 < 1.24 where LG1 denotes a lens configuration length of the first lens group. a first lens group having positive refractive power; a second lens group having negative refractive power; a third lens group having positive refractive power; and a fourth lens group having positive refractive power, an aperture stop is disposed between the second lens group and the third lens group, and the following conditional expression being satisfied: 0.10 < fw / LG 2 < 0.64 where fw denotes a focal length of the zoom lens in the wide-angle end state and LG2 denotes a lens configuration length of the second lens group, wherein the first group moving toward an image once then moving toward the object, upon zooming from a wide-angle end state to a telephoto end state, and the following conditional expressions being satisfied: 0.050 < fw / TLw < 0.100 0.10 < ft / TLt < 0.80 where ft denotes a focal length of the zoom lens in the telephoto end state, TLw denotes a total length of the zoom lens in the wide-angle end state, and TLt denotes a total length of the zoom lens in the telephoto end state, wherein the following conditional expression is satisfied: 0.3 < ft / fG 1 < 1.0 where fG1 denotes a focal length of the first lens group, and wherein the following conditional expression is satisfied: 0.75 < fw / LG 1 < 1.24 where LG1 denotes a lens configuration length of the first lens group.
A class D amplifier system having a class D amplifier and comprising a series arrangement of a comparator, a loop filter, an adjustable gain stage, a power amplifier stage and a reconstruction filter, and a feedback path arranged between the output (218,218')of the reconstruction filter and the comparator and a gain calibration controller, wherein the gain calibration controller input is coupled to the reconstruction filter output (218,218') and the gain calibration controller output is coupled to the adjustable gain stage, wherein the gain calibration controller is configured to detect a first output noise level of the class D amplifier in a first frequency range and a second output noise level of the class D amplifier in a second higher frequency range, set a predetermined initial gain value by increasing the gain in response to the first noise level being above a first predetermined noise threshold value and reducing the gain in response to the second noise level being above a second predetermined noise threshold value, determine a minimum stable gain value of a stable gain range by decreasing the gain of the adjustable gain stage, detecting an increase in at least one of the first and second output noise levels in response to decreasing the gain and determining the minimum stable gain value from the decreased gain value, and determine a maximum stable gain value of the stable gain range by increasing the gain of the adjustable gain stage, detecting an increase in at least one of the first and second output noise levels in response to increasing the gain and determining the maximum stable gain value from the increased gain value; wherein the class D amplifier system is a class D audio amplifier system. wherein the gain calibration controller is configured to detect a first output noise level of the class D amplifier in a first frequency range and a second output noise level of the class D amplifier in a second higher frequency range, set a predetermined initial gain value by increasing the gain in response to the first noise level being above a first predetermined noise threshold value and reducing the gain in response to the second noise level being above a second predetermined noise threshold value, determine a minimum stable gain value of a stable gain range by decreasing the gain of the adjustable gain stage, detecting an increase in at least one of the first and second output noise levels in response to decreasing the gain and determining the minimum stable gain value from the decreased gain value, and determine a maximum stable gain value of the stable gain range by increasing the gain of the adjustable gain stage, detecting an increase in at least one of the first and second output noise levels in response to increasing the gain and determining the maximum stable gain value from the increased gain value; wherein the class D amplifier system is a class D audio amplifier system.
A motion detection training method comprising: receiving channel information based on training signals, the training signals comprising wireless signals transmitted by a wireless communication device through a space during a motion detection training time period; receiving a label based on information input to a user interface of a mobile device in the space during the motion detection training time period; receiving sensor data collected by a wearable sensor device of a user in the space during the motion detection training time period; analyzing the label and the sensor data to detect a variance between the label and the sensor data, wherein analyzing the label and the sensor data comprises: detecting a variance when the analysis indicates that the sensor data does not correspond to the label; and either correcting the label based on the received sensor data, or augmenting the label with the received sensor data, depending on the variance detected; generating a tag if the analysis of the label and sensor data resulted in such a correction or augmentation or based on the label input by the user otherwise; and providing the channel information and the tag as training input to train a motion detection system. receiving channel information based on training signals, the training signals comprising wireless signals transmitted by a wireless communication device through a space during a motion detection training time period; receiving a label based on information input to a user interface of a mobile device in the space during the motion detection training time period; receiving sensor data collected by a wearable sensor device of a user in the space during the motion detection training time period; analyzing the label and the sensor data to detect a variance between the label and the sensor data, wherein analyzing the label and the sensor data comprises: detecting a variance when the analysis indicates that the sensor data does not correspond to the label; and either correcting the label based on the received sensor data, or augmenting the label with the received sensor data, depending on the variance detected; detecting a variance when the analysis indicates that the sensor data does not correspond to the label; and either correcting the label based on the received sensor data, or augmenting the label with the received sensor data, depending on the variance detected; generating a tag if the analysis of the label and sensor data resulted in such a correction or augmentation or based on the label input by the user otherwise; and providing the channel information and the tag as training input to train a motion detection system.
A bread comprising a) wheat flour b) at least one heat-stable alpha-amylase, wherein the heat-stable alpha-amylase when having an activity of 800 KNU/g is present in the range of from 1 to 3 ppm/kg flour, and c) oats in an amount in the range of from 50 to 250 g per kg flour, and d) at least one further non-starch hydrocolloidal plant polysaccharide selected from the group consisting of psyllium, chia and combinations thereof. a) wheat flour b) at least one heat-stable alpha-amylase, wherein the heat-stable alpha-amylase when having an activity of 800 KNU/g is present in the range of from 1 to 3 ppm/kg flour, and c) oats in an amount in the range of from 50 to 250 g per kg flour, and d) at least one further non-starch hydrocolloidal plant polysaccharide selected from the group consisting of psyllium, chia and combinations thereof.
A process for disposing of sulfur-containing waste, comprising the steps of i) heating a sulfur-containing waste in a receptacle at a temperature of between 120 and 160°C, thereby obtaining a mixture comprising raw molten sulfur; ii) optionally separating solids, by rough screening, from said mixture obtained in step i); iii) transferring said mixture obtained in step i) optionally screened as in said step ii) from said receptacle to a separating reactor heated at a temperature of between 450 and 500°C, whereby creating sulfur vapor and sulfur-free solid phase; iv) transferring said sulfur vapor formed in step iii) from said reactor to a condenser cooled to a temperature of between 120 and 140°C, whereby obtaining molten sulfur; The process being further characterized in that it comprises the steps of: v) transferring said solid phase formed in step iii) from said reactor to a cooling conveyor, and collecting said phase as an ash for landfilling; and vi) removing gases from said condenser by means of an off-gas cleaner, and collecting from said condenser essentially pure sulfur. i) heating a sulfur-containing waste in a receptacle at a temperature of between 120 and 160°C, thereby obtaining a mixture comprising raw molten sulfur; ii) optionally separating solids, by rough screening, from said mixture obtained in step i); iii) transferring said mixture obtained in step i) optionally screened as in said step ii) from said receptacle to a separating reactor heated at a temperature of between 450 and 500°C, whereby creating sulfur vapor and sulfur-free solid phase; iv) transferring said sulfur vapor formed in step iii) from said reactor to a condenser cooled to a temperature of between 120 and 140°C, whereby obtaining molten sulfur; The process being further characterized in that it comprises the steps of: v) transferring said solid phase formed in step iii) from said reactor to a cooling conveyor, and collecting said phase as an ash for landfilling; and vi) removing gases from said condenser by means of an off-gas cleaner, and collecting from said condenser essentially pure sulfur.
A cab section for a vehicle, said cab section comprising a first floor part and a second floor part being rotatable relative to the first floor part, said first floor part comprising a substantially planar first floor portion, which exhibits a substantially circular opening, and said second floor part comprising a substantially planar and circular second floor portion, which is arranged in the opening of the first floor portion, the cab section comprises at least three supporting elements, which are arranged in the circumferential direction around the opening of the first floor portion and which each comprise a rotatable rotary element for direct or indirect interaction with the periphery of the second floor portion, upon which rotary elements the second floor portion is directly, or indirectly, rotatably resting, characterized in that at least one supporting element, of said at least three supporting elements, comprises a motor for driving its rotary element, said motor being controllable to cause the motor-connected rotary element to perform a rotary motion, said rotary motion being adapted to be converted into a rotational movement of the second floor part by means of direct or indirect frictional action between the motor-connected rotary element and the periphery of the second floor part.
Method for forming a profiled nonwoven fabric, comprising the steps of: - feeding fibres or fibre flocks by means of a feeding apparatus onto a starting nonwoven fabric, which is transported to the feeding apparatus, or directly onto a transporting apparatus, and forming a profiled nonwoven-fabric intermediate product with inclusion of the feeding step; - breaking down the profiled nonwoven-fabric intermediate product in a breaking-down unit and feeding the broken-down fibres or fibre flocks of the profiled nonwoven-fabric intermediate product onto a base nonwoven fabric or directly onto a conveying apparatus, and forming the profiled nonwoven fabric with inclusion of the breaking-down step and feeding step. - feeding fibres or fibre flocks by means of a feeding apparatus onto a starting nonwoven fabric, which is transported to the feeding apparatus, or directly onto a transporting apparatus, and forming a profiled nonwoven-fabric intermediate product with inclusion of the feeding step; - breaking down the profiled nonwoven-fabric intermediate product in a breaking-down unit and feeding the broken-down fibres or fibre flocks of the profiled nonwoven-fabric intermediate product onto a base nonwoven fabric or directly onto a conveying apparatus, and forming the profiled nonwoven fabric with inclusion of the breaking-down step and feeding step.
A crossflow fan comprising an impeller having a plurality of support plates located on a rotation axis of the impeller and a plurality of plate-like blades provided at peripheral portions of the support plates, the blades extending parallel to the rotation axis, each blade being inclined such that its outer edge is located on the leading side of its inner edge with respect to the rotation direction of the impeller, one of the faces of each blade that is on the leading side of the rotation direction of the impeller forms a positive pressure surface, the face on the trailing side of the rotation direction forms a negative pressure surface, wherein a plurality of notches are formed at the outer edge of each blade, the notches being arranged at predetermined intervals along the rotation axis of the impeller, characterized in that: at least one of a positive pressure corner and a negative pressure corner, which connect the bottom of each notch with the positive pressure surface and the negative pressure surface, respectively, is rounded.
A biopsy device comprising: (a) a body; (b) a needle extending distally from the body; (c) a cutter tube longitudinally translatable and rotatable relative to the needle, wherein the cutter defines a cutter lumen; (d) a tissue sample holder coupled to the body; (e) a sample stopping assembly (600, 900) disposed between a distal end of the cutter tube and the tissue sample holder, the sample stopping assembly (600, 900) being configured to selectively stop a tissue sample being transported through the body from the cutter tube to the tissue sample holder for inspection and to allow movement of the tissue sample towards the tissue sample holder; and characterised by further comprising (f) a sample inspection member attached to the cutter tube such that the inspection member is configured to rotate simultaneously with the cutter tube, the sample inspection member allowing inspection of the tissue sample through a sample window of the device. (a) a body; (b) a needle extending distally from the body; (c) a cutter tube longitudinally translatable and rotatable relative to the needle, wherein the cutter defines a cutter lumen; (d) a tissue sample holder coupled to the body; (e) a sample stopping assembly (600, 900) disposed between a distal end of the cutter tube and the tissue sample holder, the sample stopping assembly (600, 900) being configured to selectively stop a tissue sample being transported through the body from the cutter tube to the tissue sample holder for inspection and to allow movement of the tissue sample towards the tissue sample holder; and characterised by further comprising (f) a sample inspection member attached to the cutter tube such that the inspection member is configured to rotate simultaneously with the cutter tube, the sample inspection member allowing inspection of the tissue sample through a sample window of the device.
A sensor system for outputting an electrical signal representing an amount of relative movement, comprising: at least two magnetic field sensors (204, 206); the sensor system being characterized by further comprising an L-shaped magnet having two longitudinal axes each aligned with a magnetic field direction such that the longitudinal axes form a first angle of about 90 degrees relative to each other, wherein the L-shaped magnet and the at least two magnetic field sensors are mounted for relative movement therebetween such that the L-shaped magnet and the at least two magnetic field sensors do not contact one another; and a circuit for determining an amount of the relative movement as a function of a difference between the outputs of the at least two magnetic field sensors. at least two magnetic field sensors (204, 206); the sensor system being characterized by further comprising an L-shaped magnet having two longitudinal axes each aligned with a magnetic field direction such that the longitudinal axes form a first angle of about 90 degrees relative to each other, wherein the L-shaped magnet and the at least two magnetic field sensors are mounted for relative movement therebetween such that the L-shaped magnet and the at least two magnetic field sensors do not contact one another; and a circuit for determining an amount of the relative movement as a function of a difference between the outputs of the at least two magnetic field sensors.
A driving tool comprising: a nose portion that guides a fastener; and a contact arm which is slidable along the nose portion, characterized in that the contact arm includes a U-type leading end portion in which a wire rod is bent in a surface intersecting to a driving direction of the fastener, wherein the nose portion and the contact arm are arranged such that a leading end of the nose portion is placed inside of a U-type part of the leading end portion of the contact arm by a sliding of the contact arm toward a base end of the nose portion, wherein the leading end portion of the nose portion includes a receiving portion (22, 23) by which a load applied to the contact arm is received, and wherein the receiving portion includes a build-up portion formed on the nose portion and having a shape of a cross section corresponding to a shape of an inner side of the leading end portion of the contact arm. a nose portion that guides a fastener; and a contact arm which is slidable along the nose portion,