mhurhangee/ep-ind-claims huggingface dataset:
A camera lens module configured for performing a zooming operation at high speed, the camera lens module comprising in an ordered way from an object side, a first lens, a second lens, a third lens, a fourth lens and a fifth lens, wherein a first lens having positive (+) refractive power, a second lens having negative (-) refractive power; a third lens having positive (+) refractive power, wherein an image side surface of the third lens is concavely formed at the optical axis, an object side surface of the third lens is convexly formed at the optical axis; a fourth lens having positive (+) refractive power; and a fifth lens having negative (-) refractive power and having at least one inflection point at both objective and image sides, wherein the first, second, third, fourth and fifth lenses (12, 14, 16, 18, 20) are formed of a plastic material, wherein an image side surface of the first lens is aspheric; and in that an object side surface of the fifth lens is aspheric; wherein the refractive index of the first, second, third, fourth and fifth lenses (12, 14, 16, 18, 20) satisfies the following Conditional Expression 1: 1.5 < N 1 < 1.6, 1.6 < N 2 < 1.7, 1.5 < N 4 < 1.6, 1.5 < N 5 < 1.6 where, N1 is a refractive index of first lens, N2 is a refractive index of second lens, N4 is a refractive index of fourth lens, and N5 is a refractive index of fifth lens, and and wherein a distance from the object side surface of the first lens to an imaging surface satisfies the following Conditional Expression 2: 4.7 < ∑ T < 5.9 where ΣT is a distance (mm) from the object side surface of the first lens to an imaging surface; characterized in that only the first lens is configured to perform a zooming operation while moving along an optical axis, an aperture is positioned at an object side surface of the first lens, wherein an image side surface of the first lens is convexly formed; an object side surface of the fifth lens is convexly formed at the optical axis; and the following conditional expression is satisfied: 1.5 < N3 < 1.6, where N3 is a refractive index of the third lens. N1 is a refractive index of first lens, N2 is a refractive index of second lens, N4 is a refractive index of fourth lens, and N5 is a refractive index of fifth lens, and and wherein a distance from the object side surface of the first lens to an imaging surface satisfies the following Conditional Expression 2: 4.7 < ∑ T < 5.9 where ΣT is a distance (mm) from the object side surface of the first lens to an imaging surface; characterized in that only the first lens is configured to perform a zooming operation while moving along an optical axis, an aperture is positioned at an object side surface of the first lens, wherein an image side surface of the first lens is convexly formed; an object side surface of the fifth lens is convexly formed at the optical axis; and the following conditional expression is satisfied: 1.5 < N3 < 1.6, where N3 is a refractive index of the third lens.
A cooling apparatus for cooling a plurality of heat-generating devices (10, 20) mounted on a vehicle, said vehicle having a hollow space comprising: a cooling-air passage disposed adjacent to said hollow space; a first heat-generating device disposed in said cooling-air passage; a second heat-generating device disposed in said hollow space; and a fan for supplying air to said cooling-air passage, a communicating portion providing communication between said cooling-air passage and said hollow space being formed in a wall portion of said cooling-air passage facing said hollow space, characterized in that the hollow space can accommodate a spare tire. a cooling-air passage disposed adjacent to said hollow space; a first heat-generating device disposed in said cooling-air passage; a second heat-generating device disposed in said hollow space; and a fan for supplying air to said cooling-air passage, a communicating portion providing communication between said cooling-air passage and said hollow space being formed in a wall portion of said cooling-air passage facing said hollow space, characterized in that the hollow space can accommodate a spare tire.
Beam delivery system preferably configured to be used for performing laser ablation using at least one laser beam, comprising: - a shield which includes at least one beam passage for transmission of at least one laser beam; - an optics assembly configured to at least partly focus the at least one laser beam on the at least one beam passage; and being characterised by: - means for providing a fluid flow through the at least one beam passage, and in that the optics assembly is configured to at least partly focus the at least one laser beam on a first focal plane which has an intersection with the at least one beam passage, and to further at least partly focus the at least one laser beam on a second focal plane which extends at a distance from the first focal plane, wherein at least partly focus means that a laser beam is substantially concentrated, such that it transitions from substantially convergent to substantially divergent along at least one spatial dimension. - a shield which includes at least one beam passage for transmission of at least one laser beam; - an optics assembly configured to at least partly focus the at least one laser beam on the at least one beam passage; and - means for providing a fluid flow through the at least one beam passage, and in that the optics assembly is configured to at least partly focus the at least one laser beam on a first focal plane which has an intersection with the at least one beam passage, and to further at least partly focus the at least one laser beam on a second focal plane which extends at a distance from the first focal plane, wherein at least partly focus means that a laser beam is substantially concentrated, such that it transitions from substantially convergent to substantially divergent along at least one spatial dimension.
Vibrator with a curved housing adapted to the female anatomy and which comprises a front side with a front portion and has a rear portion wherein inside the housing there is an electric motor for generating vibrations, a power source, a control device, a memory device for storing data and a communications device for data communications exchange with an external device, wherein the rear portion is suitable for transferring vibrations generated by the electric motor to the body, wherein fastening means are provided for fastening the vibrator to an item of clothing, characterised in that the fastening means have a clamping mechanism and comprise a fastening plate which is releasably fastened on a fastening portion on the front side of the housing and which closes flush with the front portion, and that the housing has a connector element which is suitable for charging the power source. wherein inside the housing there is an electric motor for generating vibrations, a power source, a control device, a memory device for storing data and a communications device for data communications exchange with an external device, wherein the rear portion is suitable for transferring vibrations generated by the electric motor to the body, wherein fastening means are provided for fastening the vibrator to an item of clothing, characterised in that the fastening means have a clamping mechanism and comprise a fastening plate which is releasably fastened on a fastening portion on the front side of the housing and which closes flush with the front portion, and that the housing has a connector element which is suitable for charging the power source.
Powder module for an apparatus for additively manufacturing three-dimensional objects, which powder module comprises a build plate, a height-adjustable carrying element and a holding device adapted to hold the build plate of the powder module, wherein the build plate is arranged on the height-adjustable carrying element, wherein the holding device comprises at least one clamping unit connectable with and disconnectable from a recess in the build plate, wherein the clamping unit is moveable between a first position in which the clamping unit is connected with the build plate and a second position in which the clamping unit is disconnected from the recess, characterized in that the holding device comprises a moving unit adapted to move the clamping unit, particularly controlled via a control unit, wherein the moving unit is adapted to translatorily move the at least one clamping unit in a vertical direction and in a horizontal direction or a rotational direction with respect to a build plane provided via the build plate or the plane of a carrying element, wherein the moving unit is adapted to apply a force onto the build plate pressing the build plate against the carrying element and/or the moving unit is adapted to lift the build plate via the at least one clamping unit by moving the clamping unit in a vertical direction away from the carrying element.
A control apparatus for a crane that automatically conveys a load along a conveyance path given as point group data including at least coordinates of a passing point of the load and a passage order of each passing point, wherein the control apparatus is configured to: calculate a target conveyance time of the load in each section of a plurality of sections each defined by two passing points adjacent to each other in the passage order on the point group data; calculate a target speed of the load in the each section on a basis of a distance between the two passing points and the target conveyance time that is calculated, wherein the calculated target speed is constant in the each section but changeable in a stepwise manner at transition between two adjacent sections of the plurality of sections; and generate a target speed signal based on the calculated target speed; subdivide at least one section of the plurality of sections into a plurality of control sections, sets an acceleration section or a deceleration section to one control section of the plurality of control sections which connects with another section adjacent to the one section, and set a constant-speed section to the other control section of the plurality of control sections; convert, into a non-stepwise target speed signal, a stepwise target speed signal connecting the target speed signal of the one section and the target speed signal of another section adjacent to the one section by applying a low-pass filter to the target speed signal of the acceleration section or the deceleration section of the stepwise target speed signal to control the crane on a basis of the non-stepwise target speed signal. calculate a target conveyance time of the load in each section of a plurality of sections each defined by two passing points adjacent to each other in the passage order on the point group data; calculate a target speed of the load in the each section on a basis of a distance between the two passing points and the target conveyance time that is calculated, wherein the calculated target speed is constant in the each section but changeable in a stepwise manner at transition between two adjacent sections of the plurality of sections; and generate a target speed signal based on the calculated target speed; subdivide at least one section of the plurality of sections into a plurality of control sections, sets an acceleration section or a deceleration section to one control section of the plurality of control sections which connects with another section adjacent to the one section, and set a constant-speed section to the other control section of the plurality of control sections; convert, into a non-stepwise target speed signal, a stepwise target speed signal connecting the target speed signal of the one section and the target speed signal of another section adjacent to the one section by applying a low-pass filter to the target speed signal of the acceleration section or the deceleration section of the stepwise target speed signal to control the crane on a basis of the non-stepwise target speed signal.
A lighting device for an automotive vehicle, comprising: an optical module; a bracket for supporting the optical module, the optical module being connected to the bracket by at least one connection point (130, 135, 140) of the optical module; wherein the at least one connection point (130, 135, 140) is provided with a damper, and the damper comprises at least two flexible portions extending from either side of the connection point (135, 140) and each relying on a wall of the bracket; wherein the damper has a mounting portion for mounting the damper at the connection point (135, 140), and the at least two flexible portions of the damper extend from either side of the mounting portion, and wherein the at least two flexible portions are more flexible than the mounting portion; and characterized in that the connection point (135, 140) comprises a pin inserted into the bracket and a mounting leg disposed next to the pin on which the damper is mounted, wherein the mounting leg has a T-shape retaining the damper. an optical module; a bracket for supporting the optical module, the optical module being connected to the bracket by at least one connection point (130, 135, 140) of the optical module; wherein the at least one connection point (130, 135, 140) is provided with a damper, and the damper comprises at least two flexible portions extending from either side of the connection point (135, 140) and each relying on a wall of the bracket; wherein the damper has a mounting portion for mounting the damper at the connection point (135, 140), and the at least two flexible portions of the damper extend from either side of the mounting portion, and wherein the at least two flexible portions are more flexible than the mounting portion; and characterized in that the connection point (135, 140) comprises a pin inserted into the bracket and a mounting leg disposed next to the pin on which the damper is mounted, wherein the mounting leg has a T-shape retaining the damper.
A turbine section comprising: at least one component including a coating on a substrate; at least one sensor (84,84';184A,184B,184C) positioned a distance from the component, the at least one sensor (84...184C) configured to detect radiation emitted from at least one localized region of the coating at a first wavelength (R 1): wherein the at least one sensor (84...184C) is configured to detect radiation emitted from the substrate corresponding to the at least one localized region at a second, different wavelength (R 2), wherein the first wavelength (R 1) and the second wavelength (R 2) are utilized to determine a heat flux relating to the at least one localized region. at least one component including a coating on a substrate; at least one sensor (84,84';184A,184B,184C) positioned a distance from the component, the at least one sensor (84...184C) configured to detect radiation emitted from at least one localized region of the coating at a first wavelength (R 1): wherein the at least one sensor (84...184C) is configured to detect radiation emitted from the substrate corresponding to the at least one localized region at a second, different wavelength (R 2), wherein the first wavelength (R 1) and the second wavelength (R 2) are utilized to determine a heat flux relating to the at least one localized region.
A receiver comprising: a clock extraction unit to extract a clock signal superimposed on a detection signal of light propagated through space; a degradation determination unit to determine whether or not a signal-to-noise ratio of the detection signal is lower than a signal-to-noise ratio at which the detection signal is demodulated on a basis of an amplitude of the clock signal extracted by the clock extraction unit; an adaptive filter to compensate a signal value of the detection signal by using a filter coefficient and output a detection signal after signal value compensation; a coefficient calculating unit to calculate, as the filter coefficient, a filter coefficient in which a signal value of the detection signal output from the adaptive filter is a reference value; and a coefficient update unit to store the filter coefficient calculated by the coefficient calculating unit when the degradation determination unit determines that there is no signal-to-noise ratio degradation, and change the filter coefficient used by the adaptive filter to a stored filter coefficient when the degradation determination unit determines that signal-to-noise ratio degradation occurs. a clock extraction unit to extract a clock signal superimposed on a detection signal of light propagated through space; a degradation determination unit to determine whether or not a signal-to-noise ratio of the detection signal is lower than a signal-to-noise ratio at which the detection signal is demodulated on a basis of an amplitude of the clock signal extracted by the clock extraction unit; an adaptive filter to compensate a signal value of the detection signal by using a filter coefficient and output a detection signal after signal value compensation; a coefficient calculating unit to calculate, as the filter coefficient, a filter coefficient in which a signal value of the detection signal output from the adaptive filter is a reference value; and a coefficient update unit to store the filter coefficient calculated by the coefficient calculating unit when the degradation determination unit determines that there is no signal-to-noise ratio degradation, and change the filter coefficient used by the adaptive filter to a stored filter coefficient when the degradation determination unit determines that signal-to-noise ratio degradation occurs.
A highly concentrated, stable pharmaceutical pharmaceutical formulation for subcutaneous administration of 120 ± 20 mg/ml Rituximab comprising: a. about 20 mM of a buffering agent selected from the group consisting of acetic acid, citric acid, histidine buffer and L-histidine/HCl, wherein the buffering agent provides a pH selected from the group consisting of 5.5, 6.0, 6.1 and 6.5; b. about 15 to 250 mM of a stabilizer, wherein the stabilizer is a sugar in an amount of about 210 mM to about 240 mM, and wherein methionine is used as a second stabilizer in a concentration of 5 to 25 mM; c. about 0.02 to 0.06 % (w/v) of a nonionic surfactant selected from the group consisting of polysorbate 20, polysorbate 80, and polyethylene-polypropylene copolymer; and d. about 2'000 U/ml or about 12'000 U/ml of the hyaluronidase enzyme rHuPH20, wherein the term "about" used in the claim relates to +/- 10% of the given value. a. about 20 mM of a buffering agent selected from the group consisting of acetic acid, citric acid, histidine buffer and L-histidine/HCl, wherein the buffering agent provides a pH selected from the group consisting of 5.5, 6.0, 6.1 and 6.5; b. about 15 to 250 mM of a stabilizer, wherein the stabilizer is a sugar in an amount of about 210 mM to about 240 mM, and wherein methionine is used as a second stabilizer in a concentration of 5 to 25 mM; c. about 0.02 to 0.06 % (w/v) of a nonionic surfactant selected from the group consisting of polysorbate 20, polysorbate 80, and polyethylene-polypropylene copolymer; and d. about 2'000 U/ml or about 12'000 U/ml of the hyaluronidase enzyme rHuPH20, wherein the term "about" used in the claim relates to +/- 10% of the given value.
An apparatus (20; 60; 100; 150) for dispensing an additive into a liquid in a container, the apparatus (20; 60; 100; 150) comprising: a support structure (22; 62; 102; 152); a container holder (28; 68; 108; 158) for holding a container containing a liquid, the container holder (28; 68; 108; 158) being supported by the support structure (22; 62; 102; 152); a capsule holder (38, 86, 126, 180) for holding a capsule containing an additive; and a manipulator device operable to manipulate the capsule to dispense the additive into the container; and wherein the apparatus (20; 60; 100; 150) includes a container opener (30; 80; 123; 170) operable to engage a cap on the container and to remove the cap prior to manipulation of the capsule by the manipulator device. a support structure (22; 62; 102; 152); a container holder (28; 68; 108; 158) for holding a container containing a liquid, the container holder (28; 68; 108; 158) being supported by the support structure (22; 62; 102; 152); a capsule holder (38, 86, 126, 180) for holding a capsule containing an additive; and a manipulator device operable to manipulate the capsule to dispense the additive into the container; and wherein the apparatus (20; 60; 100; 150) includes a container opener (30; 80; 123; 170) operable to engage a cap on the container and to remove the cap prior to manipulation of the capsule by the manipulator device.
Drive with a drive shaft, an electrical machine connected to a power grid, and with a differential gear with three drives and three power take-offs, respectively, whereby one drive/power take-off is connected to the drive shaft, one drive/power take-off is connected to the electrical machine, and one drive is connected to a differential drive, which is connected via a frequency converter and optionally a transformer to the power grid, and the electrical machine can be connected to the frequency converter, characterized in that the differential drive is connected in a separable manner via a switch to the frequency converter.
A light emitting device comprising: a substrate (110; 210) of a first conductivity type; a first well (120; 220) of a second conductivity type at one side of the substrate (110; 210); second and third wells (122, 124; 222, 224) of the first conductivity type; fourth and fifth wells (132, 134; 232, 234) of the second conductivity type at the other side of the substrate (110; 220); a first metal electrode (142; 242) electrically connected to the second well (122; 222) and the fifth well (134; 234); a second metal electrode (144; 244) electrically connected to the third well (124, 224) and the fourth well (132; 232); and a light emitting diode, LED, (150; 250) electrically connected to the substrate (110; 210) and the first well (120; 220), characterized in that the second and third wells (122, 124; 222, 224) are in the first well (120; 220). a substrate (110; 210) of a first conductivity type; a first well (120; 220) of a second conductivity type at one side of the substrate (110; 210); second and third wells (122, 124; 222, 224) of the first conductivity type; fourth and fifth wells (132, 134; 232, 234) of the second conductivity type at the other side of the substrate (110; 220); a first metal electrode (142; 242) electrically connected to the second well (122; 222) and the fifth well (134; 234); a second metal electrode (144; 244) electrically connected to the third well (124, 224) and the fourth well (132; 232); and a light emitting diode, LED, (150; 250) electrically connected to the substrate (110; 210) and the first well (120; 220), characterized in that the second and third wells (122, 124; 222, 224) are in the first well (120; 220).