mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a cartridge suitable for use with an aerosol generating system , the method comprising the steps of: providing a liquid storage portion , providing an electrical resistor having a pre-defined initial resistance, mounting the electrical resistor to the cartridge , characterized in that the electrical resistance of the electrical resistor is customized by physical manipulation, such that the resulting electrical resistance value is indicative of an aerosol-forming substrate comprised in the liquid storage portion . providing a liquid storage portion , providing an electrical resistor having a pre-defined initial resistance, mounting the electrical resistor to the cartridge ,
Camera mount for securing to a vehicle body of a motor vehicle, in particular a bus or utility vehicle, or a trailer of the motor vehicle, comprising a camera support part fixable to the vehicle body for receiving at least one camera body of a camera , an encasing housing which can be slipped onto the camera support part , wherein the encasing housing has a receiving opening for receiving the camera support part and at least one window opening provided in a wall housing region , in or behind which a lens of the camera can be positioned, wherein the camera support part and the encasing housing each have guide contours for positioning the encasing housing on the camera support part , wherein the camera support part and the encasing housing can be detachably secured to one another, characterized in that the camera support part has at least one receiving shaft for receiving the at least one camera body of the camera , wherein the receiving shaft is delimited by an outer wall and an inner wall of the camera support part aligned parallel thereto, wherein the outer wall and the inner wall each have a blind-hole-like recess with sliding edges aligned parallel to one another, wherein the lens can be accommodated in the recess of the outer wall and a plug-in connection of the camera projecting from a rear side of the camera body can be accommodated in the recess of the inner wall , wherein the camera body can be accommodated between the outer wall and the inner wall . a camera support part fixable to the vehicle body for receiving at least one camera body of a camera , an encasing housing which can be slipped onto the camera support part , wherein the encasing housing has a receiving opening for receiving the camera support part and at least one window opening provided in a wall housing region , in or behind which a lens of the camera can be positioned, wherein the camera support part and the encasing housing each have guide contours for positioning the encasing housing on the camera support part , wherein the camera support part and the encasing housing can be detachably secured to one another, characterized in that the camera support part has at least one receiving shaft for receiving the at least one camera body of the camera , wherein the receiving shaft is delimited by an outer wall and an inner wall of the camera support part aligned parallel thereto, wherein the outer wall and the inner wall each have a blind-hole-like recess with sliding edges aligned parallel to one another, wherein the lens can be accommodated in the recess of the outer wall and a plug-in connection of the camera projecting from a rear side of the camera body can be accommodated in the recess of the inner wall , wherein the camera body can be accommodated between the outer wall and the inner wall .
A method used for the detection and/or monitoring of insect populations , in which insects of at least one defined genus, in particular flying insects of a defined genus, are attracted, are at least temporarily retained within a defined compartment , and are sensed and/or analyzed with regard to definable features , wherein the method provides at least the following steps: - attracting the defined genus of insects or flying insects within or into the range of a definable spatial vicinity by means of attracting stimuli that are attractive to the insects or flying insects , preferentially by optical and/or acoustical stimuli and/or sensory stimuli and/or heat stimuli and/or by attracting stimuli formed as olfactory and/or chemical attracting stimuli, - transferring the attracted insects or flying insects into a defined compartment interior , in particular into an interior space of an insect trap , while preventing at least for a definable time interval an inadvertent escape at least of a large number of the insects or flying insects that have been transferred into the defined compartment interior ; - detecting specific features of the insects or flying insects located within the defined compartment interior or within the insect trap , as appropriate, by means of a sensor technology suitable or equipped therefor, as appropriate; which specific features are formed by markers adhering to the insects or flying insects and/or having been impressed onto them; - providing the specific features of the insects or flying insects detected by means of the sensor technology , and transmitting the sensor signals supplied by the sensor technology to an electronic analysis device and/or evaluation device disposed downstream from the sensor technology . - attracting the defined genus of insects or flying insects within or into the range of a definable spatial vicinity by means of attracting stimuli that are attractive to the insects or flying insects , preferentially by optical and/or acoustical stimuli and/or sensory stimuli and/or heat stimuli and/or by attracting stimuli formed as olfactory and/or chemical attracting stimuli, - transferring the attracted insects or flying insects into a defined compartment interior , in particular into an interior space of an insect trap , while preventing at least for a definable time interval an inadvertent escape at least of a large number of the insects or flying insects that have been transferred into the defined compartment interior ; - detecting specific features of the insects or flying insects located within the defined compartment interior or within the insect trap , as appropriate, by means of a sensor technology suitable or equipped therefor, as appropriate; which specific features are formed by markers adhering to the insects or flying insects and/or having been impressed onto them; - providing the specific features of the insects or flying insects detected by means of the sensor technology , and transmitting the sensor signals supplied by the sensor technology to an electronic analysis device and/or evaluation device disposed downstream from the sensor technology .
Circuit arrangement for controlling LEDs; wherein the circuit arrangement comprises m x n LEDs in a matrix configuration, which has m columns and n rows, with m>1 and n>1, wherein each LED (LED11, LED12, LED21, LED22) of the matrix can be controlled individually by activation of a corresponding column driver (S01, S02) in conjunction with the activation of a corresponding row driver (S10, S20), with one bias device in each case per row having - a first bias connection , which is coupled to the cathodes of m of the LEDs (LED11, LED12) of this row, - a second bias connection , which is coupled to the anodes of the m LEDs (LED11, LED12) of this row, characterised in that the circuit arrangement further comprises - a voltage divider, which comprises a first, second and third resistor (R10x, R10y, R10z); wherein a connecting point between the first and the second resistor (R10x, R10y) forms the first bias connection , and wherein a connecting point between the second and the third resistor (R10y, R10z) forms the second bias connection ; wherein each LED (LED11, LED12, LED21, LED22) of the matrix is coupled in each case via one of m x n non-illuminable semiconductor diodes (D11, D12, D21, D22) to a respective connection of the associated column driver (S01, S02), wherein n non-illuminable semiconductor diodes (D11, D21) of the m x n non-illuminable semiconductor diodes (D11, D12, D21, D22), which are assigned to the same column, are connected electrically to one another at one of their electrodes in each case. - a first bias connection , which is coupled to the cathodes of m of the LEDs (LED11, LED12) of this row, - a second bias connection , which is coupled to the anodes of the m LEDs (LED11, LED12) of this row, characterised in that the circuit arrangement further comprises - a voltage divider, which comprises a first, second and third resistor (R10x, R10y, R10z); wherein a connecting point between the first and the second resistor (R10x, R10y) forms the first bias connection , and wherein a connecting point between the second and the third resistor (R10y, R10z) forms the second bias connection ;
A method for locating a glass support , wherein said glass support is moving, comprising the steps of: - providing a conveyor surface of the conveyor roller type arranged so as to generate said movement of said glass support , wherein said movement occurs at a selectable speed (V_sel) and in a feed direction (Dir); - providing illumination means for the glass support configured to illuminate said glass support in movement on said conveyor rollers ; - acquiring a predetermined plurality of lines (NL) of said glass support in movement, as a function of a line frequency (FL) which is defined in turn as a function of an acquisition rate (V_det); - generating a primary image (I_PR) as a function of said acquired predetermined plurality of lines (NL); - detecting from said primary image (I_PR) a plurality of representative points (Pi) of said glass support , wherein the coordinates of said plurality of points (Pi) are expressed in relation to a first predefined reference (Ref); - calculating location coordinates (Xi",Yi",αi") of said glass support relative to said first predefined reference (Ref) as a function of said plurality of representative points (Pi); - loading a graphic file (F_dsc) describing a theoretical contour (Cont_TEO) of said glass support in movement on said conveyor surface ; wherein said plurality of points (Pi) is representative of an actual contour (Cont_EFF) of said glass support ; characterised in that said step of calculating said location coordinates (Xi,Yi",αi") of said glass support relative to said first predefined reference (Ref) as a function of said plurality of representative points (Pi) is carried out by means of a fitting algorithm between said actual contour (Cont_EFF) of said glass support , determined by said plurality of points (Pi), and said theoretical contour (Cont_TEO) of said glass support . - providing a conveyor surface of the conveyor roller type arranged so as to generate said movement of said glass support , wherein said movement occurs at a selectable speed (V_sel) and in a feed direction (Dir); - providing illumination means for the glass support configured to illuminate said glass support in movement on said conveyor rollers ; - acquiring a predetermined plurality of lines (NL) of said glass support in movement, as a function of a line frequency (FL) which is defined in turn as a function of an acquisition rate (V_det); - generating a primary image (I_PR) as a function of said acquired predetermined plurality of lines (NL); - detecting from said primary image (I_PR) a plurality of representative points (Pi) of said glass support , wherein the coordinates of said plurality of points (Pi) are expressed in relation to a first predefined reference (Ref); - calculating location coordinates (Xi",Yi",αi") of said glass support relative to said first predefined reference (Ref) as a function of said plurality of representative points (Pi); - loading a graphic file (F_dsc) describing a theoretical contour (Cont_TEO) of said glass support in movement on said conveyor surface ;
A stator configured to be positioned in a flotation machine tank adjacent a rotor , the stator having a plurality of vanes , each of the vanes having a plurality of slots formed therein, each of said vanes having a height (H) and a width (W), each of the vanes of the stator being spaced apart from the other vanes to which that vane is adjacent, the vanes being positioned in series adjacent a periphery of the stator to define a central opening within the stator for positioning said rotor in said central opening , each vane extending radially with respect to a center of the stator , characterized by each of the slots having a shape that is elongated in a direction along the width of the vane.
A laparoscopic stapler for stapling tissue, comprising a staple housing assembly operable to drive staples toward an anvil assembly to perform tissue stapling, wherein the staple housing assembly comprises a pocket for containing bio-glue, and a corresponding staple pocket for containing a staple, wherein the staple housing assembly further comprises a step driver for pushing the staple and bio-glue from the respective pockets so that upon tissue stapling, the bio-glue is released and delivered into tissue clamped between the staple housing assembly and the anvil assembly for tissue gluing, characterised in that the staple housing assembly and the anvil assembly are both substantially T shaped assemblies. wherein the staple housing assembly further comprises a step driver for pushing the staple and bio-glue from the respective pockets so that upon tissue stapling, the bio-glue is released and delivered into tissue clamped between the staple housing assembly and the anvil assembly for tissue gluing, characterised in that the staple housing assembly and the anvil assembly are both substantially T shaped assemblies.
Method for improving the ohmic-contact behaviour between a contact grid and an emitter layer in a silicon solar cell, characterized in that the silicon solar cell is first provided with the emitter layer, the contact grid and a rear contact, and the contact grid is electrically connected to one pole of a voltage source, and that a contacting device that is electrically connected to the other pole of the voltage source is connected to the rear contact, and, with the voltage source, a voltage is applied directed contrary to the forward direction of the silicon solar cell that is less than the breakdown voltage of the silicon solar cell, and, when applying this voltage, a point light source is guided over the sun-facing side of the silicon solar cell and thereby a section of a subsection of the sun-facing side is illuminated and thus a current flow is induced in the subsection where the current flow relative to the section has a current density of 200 A/cm 2 to 20,000 A/cm 2 and acts on the subsection for 10 ns to 10 ms, except for a current density resulting from a current flow in the range of 100 mA and a laser spot size of 60 μm at an exposure time resulting from a laser feed rate of 10 m/s.
An optical element diffusely scattering electromagnetic radiation, on the surface of which there is a surface profile with elevations designed for a wavelength spectrum in the range between 200 nm and 1200 nm and which does not form a repeating regular surface structure, wherein the elevations have a height with which a phase deviation Δφ, which is greater than two and a half times the greatest wavelength used, is achievable and the elevations have a lateral extension in each case in one plane in all axial directions which is greater than five times the greatest wavelength used, the individual elevations are formed continuously in the three spatial axial directions and no edges, shoulders or jumps are formed on the elevations, no second-order surfaces are present on the elevations and no elevation of the surface structure has the same geometric shape and/or height and/or an identical volume which corresponds to a further elevation of the surface structure of the element.
A solution for cleaning surface of deposits of different natures, comprising hydrogen peroxide, complexing agent, water-soluble calixarene and water in the following ratio, wt. % : Hydrogen peroxide 2 - 90 Complexing agent 3 - 30 Water-soluble calixarene 0.01 - 10 Water, the complexing agent being in the form of polybasic organic acids, their sodium salts or phosphorous acid derivatives. Hydrogen peroxide 2 - 90 Complexing agent 3 - 30 Water-soluble calixarene 0.01 - 10 Water, the complexing agent being in the form of polybasic organic acids, their sodium salts or phosphorous acid derivatives.
A sanitary article such as a sanitary napkin, a panty liner, a diaper or an incontinence pad, comprising a liquid permeable topsheet, a backsheet, an absorbent core enclosed between said topsheet and said backsheet, and a fibrous layer positioned between said topsheet and said absorbent core, wherein said topsheet comprises a coating comprising a) an oil composition and b) one or more surface active agent(s) including a non-ionic surfactant, wherein the weight ratio of said oil composition and said surface active agent(s) at least 1:1, wherein said oil composition is a vegetable oil composition, wherein said oil composition is present in an amount of at least 0.3 g/m 2 of the total surface area of said topsheet, wherein said surface active agent(s) is/are present in an amount within the range of from 0.3 to 2.0 g/m 2 , and wherein said fibrous layer is an oil protecting layer consisting essentially of non-absorbent fibers.
A liquid composition comprising at least one immune-modulatory macrolide compound and an essentially cell-free blood hemolysate, wherein said immune-modulatory macrolide is at least one immune-modulatory macrolide selected from Everolimus, Sirolimus, Tacrolimus, Pimecrolimus and Temsirolimus, and wherein essentially cell free is a number of less than 10 viable cells/ml.
A martensitic stainless steel strip having a martensite structure and a thickness of 1 mm or smaller, wherein compressive residual stress on a surface of the martensitic stainless steel strip is 50 MPa or greater, wherein an area ratio of carbides present in a metal structure of the martensitic stainless steel strip is 0.5% or more and 8.0% or less, and wherein regarding the compressive residual stress on a surface of the martensitic stainless steel strip, compressive residual stress in a direction perpendicular to rolling is greater than compressive residual stress in a direction of rolling by 50 MPa or greater. wherein compressive residual stress on a surface of the martensitic stainless steel strip is 50 MPa or greater, wherein an area ratio of carbides present in a metal structure of the martensitic stainless steel strip is 0.5% or more and 8.0% or less, and wherein regarding the compressive residual stress on a surface of the martensitic stainless steel strip, compressive residual stress in a direction perpendicular to rolling is greater than compressive residual stress in a direction of rolling by 50 MPa or greater.
Computer-implemented method for tracking a human body in a sequence of multi-view input video images, comprising the steps: - acquiring a model of the human body; - tracking the human body in the multi-view input video image sequence, using the model, wherein the model comprises a statistical model representing the shape of the human body, and wherein the model further comprises a kinematic model defining the degrees-of -freedom of the human body, characterized in that pose parameters of the human body model are estimated such that a two-dimensional projection of the body model becomes essentially similar to a representation of the input image in terms of a sum of two-dimensional Gaussians, according to a chosen measure. - acquiring a model of the human body; - tracking the human body in the multi-view input video image sequence, using the model,
An information processing method executed by an electric light bulb light source apparatus , which includes a lighting unit including a light source, and a functional unit having a predetermined function, the information processing method comprising: setting, from any of a parent mode and a child mode, an operation mode for cooperative control with a different electric light bulb light source apparatus with respect to the predetermined function; in a case where the parent mode is set, causing the lighting unit to execute a first lighting operation for the parent mode in response to a predetermined lighting control signal relating to an operation of the lighting unit , and transmitting, to the different electric light bulb light source apparatus set to the child mode, a cooperative control signal for causing a second lighting operation for the child mode to be executed, the second lighting operation for the child mode being different from the first lighting operation; and in a case where the child mode is set, causing the lighting unit to execute the second lighting operation on the basis of the cooperative control signal transmitted from the different electric light bulb light source apparatus set to the parent mode. setting, from any of a parent mode and a child mode, an operation mode for cooperative control with a different electric light bulb light source apparatus with respect to the predetermined function; in a case where the parent mode is set, causing the lighting unit to execute a first lighting operation for the parent mode in response to a predetermined lighting control signal relating to an operation of the lighting unit , and transmitting, to the different electric light bulb light source apparatus set to the child mode, a cooperative control signal for causing a second lighting operation for the child mode to be executed, the second lighting operation for the child mode being different from the first lighting operation; and in a case where the child mode is set, causing the lighting unit to execute the second lighting operation on the basis of the cooperative control signal transmitted from the different electric light bulb light source apparatus set to the parent mode.
A liquid crystal polyester resin composition comprising: resin pellets including a first liquid crystal polyester resin and a fibrous filler; a second liquid crystal polyester resin; and a metal salt of higher fatty acid which is a long-chain fatty acid having 12 or more carbon atoms, wherein the second liquid crystal polyester resin has a lower flow starting temperature than the resin pellets, flow starting temperatures of the resin pellets and the second liquid crystal polyester resin are both 250°C or higher, and a difference in the flow starting temperatures between the resin pellets and the second liquid crystal polyester resin is more than 10°C, and wherein the flow starting temperature is determined as laid out in the description. resin pellets including a first liquid crystal polyester resin and a fibrous filler; a second liquid crystal polyester resin; and a metal salt of higher fatty acid which is a long-chain fatty acid having 12 or more carbon atoms, wherein the second liquid crystal polyester resin has a lower flow starting temperature than the resin pellets, flow starting temperatures of the resin pellets and the second liquid crystal polyester resin are both 250°C or higher, and a difference in the flow starting temperatures between the resin pellets and the second liquid crystal polyester resin is more than 10°C, and wherein the flow starting temperature is determined as laid out in the description.
A recombinant host cell for manufacturing a heterologous protein of interest, wherein the host cell comprises a heterologous polynucleotide sequence encoding the protein of interest and is engineered to overexpress a polynucleotide encoding a helper protein having an amino acid sequence as shown in SEQ ID NO: 1 and enhancing the yield of the protein of interest or a functional homologue thereof, wherein the functional homologue has at least 30% sequence identity to an amino acid sequence as shown in SEQ ID NO: 1, wherein the recombinant host cell comprises 1, 2, 3, 4 or more exogenous copies of said polynucleotide encoding said helper protein or said functional homologue thereof.