mhurhangee/ep-ind-claims huggingface dataset:
A method of performing a parallel parking maneuver of a host vehicle between a first object and a second object, the method comprising: detecting a parking mode; determining a parking space size upon detecting the parking mode; selecting a left rear wheel of the host vehicle or a right rear wheel of the host vehicle; applying a first braking force to the selected rear wheel (12B, 12D) of the host vehicle by means of a brake system when the parking space size is less than a size threshold, the first braking force sufficient to lock-up the selected rear wheel (12B, 12D) of the host vehicle; applying a second braking force to the selected rear wheel (12B, 12D) of the host vehicle when the parking space size is greater than or equal to the size threshold, the second braking force is less than the first braking force; determining a distance between a rear side of the host vehicle and the second object; applying the first braking force or the second braking force to the selected rear wheel (12B, 12D) of the host vehicle when the distance is greater than or equal to a clearance threshold; and applying a third braking force to the right rear wheel of the host vehicle and to the left rear wheel of the host vehicle when the distance is less than the clearance threshold. detecting a parking mode; determining a parking space size upon detecting the parking mode; selecting a left rear wheel of the host vehicle or a right rear wheel of the host vehicle; applying a first braking force to the selected rear wheel (12B, 12D) of the host vehicle by means of a brake system when the parking space size is less than a size threshold, the first braking force sufficient to lock-up the selected rear wheel (12B, 12D) of the host vehicle; applying a second braking force to the selected rear wheel (12B, 12D) of the host vehicle when the parking space size is greater than or equal to the size threshold, the second braking force is less than the first braking force; determining a distance between a rear side of the host vehicle and the second object; applying the first braking force or the second braking force to the selected rear wheel (12B, 12D) of the host vehicle when the distance is greater than or equal to a clearance threshold; and applying a third braking force to the right rear wheel of the host vehicle and to the left rear wheel of the host vehicle when the distance is less than the clearance threshold.
A computer-implemented method for executing a search query on losslessly reduced data, wherein the losslessly reduced data is obtained by losslessly reducing input data, wherein the input data has a structure that is defined by a schema which specifies a set of fields that are present in each element of the input data, wherein the search query specifies field values for a subset of the set of fields, wherein said losslessly reducing the input data comprises factorizing the input data into a set of elements, and for each element: determining a name by concatenating the subset of the set of fields of the element, identifying one or more prime data elements by navigating through a data structure using the name, wherein each prime data element has a structure that is defined by the schema, wherein the data structure organizes the prime data elements based on names whose leading bytes are determined by concatenating the subsets of the set of fields of the prime data elements, and using the one or more prime data elements to losslessly reduce the element to obtain (i) if the element is a duplicate of a prime data element, a reference to the prime data element, or (ii) if the element is not a duplicate of any prime data elements, a reference to one or more prime data elements, and a sequence of transformations that derives the element from the one or more prime data elements, the method for executing the search query on the losslessly reduced data comprising: while losslessly reducing the input data, determining the sequence of transformations such that the sequence of transformations does not modify the subset of the set of fields in the prime data elements; and executing the search query by searching the data structure to obtain a search result that is selected from a group including: matching prime data elements that contain the field values in respective fields, portions of losslessly reduced data that were losslessly reduced by using the matching prime data elements, portions of input data that were losslessly reduced by using the matching prime data elements, and a notification that no matching results were found. while losslessly reducing the input data, determining the sequence of transformations such that the sequence of transformations does not modify the subset of the set of fields in the prime data elements; and executing the search query by searching the data structure to obtain a search result that is selected from a group including: matching prime data elements that contain the field values in respective fields, portions of losslessly reduced data that were losslessly reduced by using the matching prime data elements, portions of input data that were losslessly reduced by using the matching prime data elements, and a notification that no matching results were found.
Method for purifying polycrystalline silicon, comprising prepurification and main purification by means of an aqueous etching mixture containing HF and HNO 3, characterized in that the used etching mixture containing HF, HNO 3, H 2 SiF 6 and HNO 2 is processed by being distilled progressively so that approximately from 20 to 50 wt.% of the used etching mixture is distilled off as dilute acid in a first fraction, the dilute acid containing more than 90 wt.% of the silicon dissolved as hexafluorosilicic acid and being an aqueous mixture containing HF, HNO 3 and H 2 SiF 6 with an HNO 3 content < 40 wt.% which is used for prepurifying the polycrystalline silicon, the water contained in the used etching mixture being reduced by approximately 10 - 30 wt.% and this water-depleted mixture being concentrated by evaporation to a residue of about 1 - 5 wt.% of the initial amount of used aqueous etching mixture and the second fraction thereby distilled off consisting of an HF/HNO 3 mixture with an HNO 3 content > 55 wt.% and a silicon content of less than 1 wt.% and being added to the etching mixture for the main purification of the polycrystalline silicon.
Apparatus for evaluating the viability of cultured samples, the apparatus comprising at least one independently accessible module including a culturing chamber adapted for incubating a plurality of samples in a controlled environment, the at least one module being operatively associated with a light source and a movable optical inspection means adapted for motion about a viewing axis through the module wherein the movable optical inspection means is located external to the controlled environment and is adapted for motion by means of an elliptical-rotating objective lens system to enable a sweeping of viewing area that incorporates each of the plurality of samples.
Housing for a radial fan, with at least one housing part, wherein the housing part has at least one inlet opening, wherein a fluid chamber for receiving at least one fan wheel is at least partially delimitable by the housing part, wherein the inlet opening has at least in sections a curved inlet area, wherein more than one guide element extends from the inlet area in the direction of a central axis of the inlet opening, characterised in that at least a part of the guide elements are spaced apart on the circumference of the inlet area at distances (A1, A2, A3, A4, A5) which are related to one another according to the Fibonacci sequence.
A handheld electronic device, comprising: a first body; a pivot member, pivoted on the first body; a second body, having a first rack and being slidably coupled with the first body; a third body, having a second rack and being slidably coupled with the pivot member, wherein the second body is stacked between the first body and the third body; and a gear set, disposed on the first body and coupled with the first rack and the second rack, wherein when the third body shifts a first distance relative to the first body along a first operating direction and drives the gear set with the second rack, the second body is adapted to be driven by the first rack to shift with respect to the first body along a second operating direction opposite to the first operating direction and exposed by the third body, and the third body is adapted to be then tilted with respect to the first body by the pivot member pivoted on the first body. a first body; a pivot member, pivoted on the first body; a second body, having a first rack and being slidably coupled with the first body; a third body, having a second rack and being slidably coupled with the pivot member, wherein the second body is stacked between the first body and the third body; and a gear set, disposed on the first body and coupled with the first rack and the second rack, wherein when the third body shifts a first distance relative to the first body along a first operating direction and drives the gear set with the second rack, the second body is adapted to be driven by the first rack to shift with respect to the first body along a second operating direction opposite to the first operating direction and exposed by the third body, and the third body is adapted to be then tilted with respect to the first body by the pivot member pivoted on the first body.
A method for manufacturing an electrical heating device, in particular for a motor vehicle, in which a PTC heating element with at least one PTC element that is provided between conductor paths is inserted into a U-shaped recess of a heater housing, wherein the U-shaped recess is formed by a radiator (14.2), which protrudes into a circulation chamber of the heater housing, and the PTC heating element is wedged into the U-shaped recess by inserting a wedge element and is put in heat conducting contact with opposing interior surfaces (38.1, 38.2) defining the U-shaped recess, characterized in that after inserting the PTC heating element, a heat conducting mass is introduced into the U-shaped recess between front surfaces of the U-shaped recess joining the PTC element and the opposite interior surface (38.1, 38.2).
A process for making a consumer antiperspirant or deodorant product, said consumer product comprising packaging comprising a product chamber and an outer jacket at least partially surrounding the product chamber; the method comprising the steps of: (a) providing a double-walled container comprising a product chamber and an outer jacket that at least partially surrounds the product chamber; (b) forming a hot material process stream comprising a solvent and a gellant dissolved therein, the hot process material stream having a first temperature; (c) forming a cold process stream comprising an antiperspirant and/or deodorant active and having a second temperature, wherein the second temperature is at least 20 °C below the first temperature; (d) combining the hot material process stream and one cold material process stream together in a mixing chamber to form a mixed process stream; and (e) charging a volume of the mixed process stream into the product chamber. (a) providing a double-walled container comprising a product chamber and an outer jacket that at least partially surrounds the product chamber; (b) forming a hot material process stream comprising a solvent and a gellant dissolved therein, the hot process material stream having a first temperature; (c) forming a cold process stream comprising an antiperspirant and/or deodorant active and having a second temperature, wherein the second temperature is at least 20 °C below the first temperature; (d) combining the hot material process stream and one cold material process stream together in a mixing chamber to form a mixed process stream; and (e) charging a volume of the mixed process stream into the product chamber.
A method for producing an animal leather fiber bundle with nanoscale branches, comprising an animal leather fiber main body being a spinnable animal leather fiber body, the method includes liquid defibrillation, opening and carding of animal leather, wherein the liquid defibrillation includes subjecting the animal leather under mechanical action of a rotor of a liquid defibrillation machine, and thereby under hydraulic shear caused by rotation of the rotor, wherein the animal leather fiber bundle has independent, separated nanoscale branches attached to the animal leather fiber main body, and wherein the nanoscale branches comprise nanoscale branches with a diameter of 200 nm or less.
Lancing device for taking blood for medical analyses, comprising a base body, at least one needle which is arranged therein and can be extended by a tip, comprising a needle holding element which encloses the needle at least in part, and comprising a drive unit for driving a movement of the needle together with the needle holding element with respect to the base body, wherein a rotary element for carrying out a rotary movement is arranged between the drive unit and the needle holding element as a connection element, and the rotary movement, both left and right, in each case brings about the movement of the needle holding element both forwards and backwards.
Method for producing a high-voltage LDMOS transistor, comprising: - forming a first well having a doping of a first type of conductivity in a semiconductor substrate, - forming a second well having a doping of an opposite second type of conductivity in the first well, - forming a source region of the second type of conductivity in the first well outside the second well, - forming a drain region of the second type of conductivity in the second well, leaving a drift region in the second well between the drain region and the source region, - forming a bulk contact region of the first type of conductivity in the first well, and - arranging a gate dielectric and a gate electrode on a section of the first well that is present between the second well and the source region, wherein an implantation of the first type of conductivity is performed into the second well in an area of the drift region by using an implantation mask with a patterned window comprising openings that are confined in directions both along the drift region and transverse to the drift region, the implantation producing a reduced net doping concentration in the drift region. - forming a first well having a doping of a first type of conductivity in a semiconductor substrate, - forming a second well having a doping of an opposite second type of conductivity in the first well, - forming a source region of the second type of conductivity in the first well outside the second well, - forming a drain region of the second type of conductivity in the second well, leaving a drift region in the second well between the drain region and the source region, - forming a bulk contact region of the first type of conductivity in the first well, and - arranging a gate dielectric and a gate electrode on a section of the first well that is present between the second well and the source region, wherein an implantation of the first type of conductivity is performed into the second well in an area of the drift region by using an implantation mask with a patterned window comprising openings that are confined in directions both along the drift region and transverse to the drift region, the implantation producing a reduced net doping concentration in the drift region.
A process for the chemical looping combustion of a feed of solid hydrocarbon particles in which an oxygen transporter material circulates in the form of particles, said process comprising at least: • bringing particles of solid feed into contact with particles of oxygen transporter material in a first reaction zone R1 operating in dense fluidized bed mode; • combustion of the gaseous effluents from the first reaction zone R1 in the presence of particles of oxygen transporter material in a second reaction zone R2; • separating the unburned particles of solid feed from fly ash and from particles of oxygen transporter material in a mixture from the zone R2 in a rapid separation zone S3 in order to transport the major portion of the unburned solid feed and the fly ash with the combustion fumes and sending the major portion of the particles of oxygen transporter material to an oxidation zone R0; • dedusting the fumes from the rapid separation zone S3 in a fume dedusting zone S4 in order to evacuate a stream of dedusted gas and a stream of particles comprising ash and dense particles primarily formed of particles of oxygen transporter and particles of unburned solid feed; • dividing the stream of particles separated in the dedusting step S4 into two streams in a stream division zone D7, one being recycled to the first reaction zone R1 operating in dense fluidized bed mode, the other being sent to an elutriation separation zone S5; • separating by elutriation in said zone S5 in order to recover the ash and recycle the dense particles to the first reaction zone R1. • bringing particles of solid feed into contact with particles of oxygen transporter material in a first reaction zone R1 operating in dense fluidized bed mode; • combustion of the gaseous effluents from the first reaction zone R1 in the presence of particles of oxygen transporter material in a second reaction zone R2; • separating the unburned particles of solid feed from fly ash and from particles of oxygen transporter material in a mixture from the zone R2 in a rapid separation zone S3 in order to transport the major portion of the unburned solid feed and the fly ash with the combustion fumes and sending the major portion of the particles of oxygen transporter material to an oxidation zone R0; • dedusting the fumes from the rapid separation zone S3 in a fume dedusting zone S4 in order to evacuate a stream of dedusted gas and a stream of particles comprising ash and dense particles primarily formed of particles of oxygen transporter and particles of unburned solid feed; • dividing the stream of particles separated in the dedusting step S4 into two streams in a stream division zone D7, one being recycled to the first reaction zone R1 operating in dense fluidized bed mode, the other being sent to an elutriation separation zone S5; • separating by elutriation in said zone S5 in order to recover the ash and recycle the dense particles to the first reaction zone R1.
A rigid-flex assembly for high-speed data transfer, the assembly comprising: a flexible wiring section (18; 44; 58) having a first end (20; 60) and a second end, the first end (20; 60) electrically couplable to an electrical component (12; 42; 52) for transferring data gathered by a sensor (14; 38), the flexible wiring section (18; 44; 58) comprising a first flexible strip and a second flexible strip arranged in a stack; a controlled separation gap defined by a distance between the first flexible strip and the second flexible strip to provide a low thermal conductive path while maintaining signal integrity, wherein the first flexible strip has a first set of electrical wires and the second flexible strip has a second set of electrical wires, wherein the sets of electrical wires oppose each other to form the controlled separation gap; a first rigid substrate electrically coupled to the first flexible strip at the second end (24; 64) of the flexible wiring section (18; 44; 58) and a second rigid substrate electrically coupled to the second flexible strip at the second end (24; 64) of the flexible wiring section (18; 44; 58) such that the first and second rigid substrates are spatially separated from each other and form a stack; and a connector (22; 48) electrically coupled to the rigid substrates and attachable to a computer system for processing the data. a flexible wiring section (18; 44; 58) having a first end (20; 60) and a second end, the first end (20; 60) electrically couplable to an electrical component (12; 42; 52) for transferring data gathered by a sensor (14; 38), the flexible wiring section (18; 44; 58) comprising a first flexible strip and a second flexible strip arranged in a stack; a controlled separation gap defined by a distance between the first flexible strip and the second flexible strip to provide a low thermal conductive path while maintaining signal integrity, wherein the first flexible strip has a first set of electrical wires and the second flexible strip has a second set of electrical wires, wherein the sets of electrical wires oppose each other to form the controlled separation gap; a first rigid substrate electrically coupled to the first flexible strip at the second end (24; 64) of the flexible wiring section (18; 44; 58) and a second rigid substrate electrically coupled to the second flexible strip at the second end (24; 64) of the flexible wiring section (18; 44; 58) such that the first and second rigid substrates are spatially separated from each other and form a stack; and a connector (22; 48) electrically coupled to the rigid substrates and attachable to a computer system for processing the data.
A catheter shape adjustment mechanism which includes a catheter handle comprising an elongate handle body having a proximal end and a distal end with a passage extending between the proximal end and the distal end; a sleeve which is slidably received in the catheter handle to protrude distally from the catheter handle; a stylet carrier displaceably mounted in the passage of the handle body, at least a component of a multi-component stylet being mountable to the stylet carrier; a shape adjuster rotably carried on an exterior of the handle body, the shape adjuster being rotable about a longitudinal axis of the handle body; and complementary guide formations carried by the stylet carrier and the shape adjuster so that rotary motion applied to the shape adjuster imparts a predefined motion to the stylet carrier to adjust the shape of a distal part of the stylet, in use, wherein the catheter shape adjustment mechanism further includes a shape release mechanism comprising the sleeve and the catheter handle, wherein the shape release mechanism includes complementary guide formations for guiding sliding displacement of the sleeve relative to the handle body, the complementary guiding formations comprising a guide plate secured to a part of the catheter handle, the guide plate defining a guide slot which extends axially in the guide plate, and a locking arrangement in the form of a detent which is defined at a proximal end of the guide slot. a catheter handle comprising an elongate handle body having a proximal end and a distal end with a passage extending between the proximal end and the distal end; a sleeve which is slidably received in the catheter handle to protrude distally from the catheter handle; a stylet carrier displaceably mounted in the passage of the handle body, at least a component of a multi-component stylet being mountable to the stylet carrier; a shape adjuster rotably carried on an exterior of the handle body, the shape adjuster being rotable about a longitudinal axis of the handle body; and complementary guide formations carried by the stylet carrier and the shape adjuster so that rotary motion applied to the shape adjuster imparts a predefined motion to the stylet carrier to adjust the shape of a distal part of the stylet, in use, wherein the catheter shape adjustment mechanism further includes a shape release mechanism comprising the sleeve and the catheter handle, wherein the shape release mechanism includes complementary guide formations for guiding sliding displacement of the sleeve relative to the handle body, the complementary guiding formations comprising a guide plate secured to a part of the catheter handle, the guide plate defining a guide slot which extends axially in the guide plate, and a locking arrangement in the form of a detent which is defined at a proximal end of the guide slot.