mhurhangee/ep-ind-claims huggingface dataset:
A package for a tooth treatment product, comprising: an inner container having a front face section and a back face section, the front face section including a recess portion therein for containing the tooth treatment product and wherein the inner container is transparent; a cover joined to the front face section of the inner container, the cover having a height less than the corresponding height of the recess portion of the inner container, the difference in height defining a ridge between a top side of the cover and the recess portion; an outer sleeve having at least one open end for receiving the inner container, the outer sleeve including a window through which the tooth treatment product is visible to a consumer, wherein the window is positioned on the front panel of the outer sleeve and the front face section of the inner container is in contact with and facing the back panel of the sleeve; and a stop provided at the outer sleeve and configured to releasably engage the ridge, characterized that the stop is in form of a stop tab and is adjacent the at least one open end of the outer sleeve, wherein the stop tab engages the ridge so that the inner container is stopped from being pulled out of the outer sleeve, when 30% to 80% of the inner container is outside the outer sleeve; and wherein the inner container is removable through the at least one open end of the outer sleeve by disengaging the stop tab from the ridge. an inner container having a front face section and a back face section, the front face section including a recess portion therein for containing the tooth treatment product and wherein the inner container is transparent; a cover joined to the front face section of the inner container, the cover having a height less than the corresponding height of the recess portion of the inner container, the difference in height defining a ridge between a top side of the cover and the recess portion; an outer sleeve having at least one open end for receiving the inner container, the outer sleeve including a window through which the tooth treatment product is visible to a consumer, wherein the window is positioned on the front panel of the outer sleeve and the front face section of the inner container is in contact with and facing the back panel of the sleeve; and a stop provided at the outer sleeve and configured to releasably engage the ridge, characterized that the stop is in form of a stop tab and is adjacent the at least one open end of the outer sleeve, wherein the stop tab engages the ridge so that the inner container is stopped from being pulled out of the outer sleeve, when 30% to 80% of the inner container is outside the outer sleeve; and wherein the inner container is removable through the at least one open end of the outer sleeve by disengaging the stop tab from the ridge.
An anchoring member suitable for use in a polyaxial bone anchoring device, the anchoring member (1, 1', 1 ", 1"', 101) comprising a bone anchoring section with a bone engagement structure in at least a portion of an outer surface thereof; a head; a common central axis extending through a center of the head and of the bone anchoring section, and a neck portion (24; 24'; 24"; 24"') between the bone anchoring section and the head, wherein the neck portion is asymmetric with respect to the central axis; and wherein the bone anchoring section has a contour in a circumferential direction adjacent to the neck portion and wherein the neck portion is at least partially recessed with respect to the contour of the bone anchoring section at one side and extends beyond the contour of the bone anchoring section at an opposite side from the central axis.
An overhead conveying device (01, 30) for integration in an assembly plant in order to transport vehicle components by means of a conveying device arranged on the overhead conveying device (01, 30), said overhead conveying device having a supporting framework (03, 38), wherein the supporting framework (03, 38) has a length greater than 5 m and a width greater than 2 m, and wherein the conveying device can be mounted at the supporting framework (03, 38), and wherein the supporting framework (03, 38) and the conveying device form a conveying corridor, in which the vehicle components can be transported from an input point to an output point, and wherein the supporting framework (03, 38) is borne on the floor of the assembly plant by bearing means (09, 39), and wherein a free space, which is suitable for component assembly and/or for component transport and which can be walked and/or driven through, is formed between the underside of the supporting framework (03, 38) and the upper side of the floor by the bearing means (09, 39), characterised in that at least one securing element (18, 19; 47) is arranged at the input point and/or output point of the supporting framework (03, 38), wherein the securing element (18, 19; 47) can be moved between a securing position and an opening position, and wherein the securing element (18, 19; 47) functions in its securing position as fall protection and at least partially blocks the initial cross-section and/or terminal cross-section of the conveying corridor, and wherein, in its opening position, the securing element (18, 19; 47) releases the initial cross-section and/or terminal cross-section of the conveying corridor for the transport of vehicle components with the help of the conveying device.
A method comprising: receiving a reference clock signal (CK_Ref) and a phase of a local oscillator signal (VCO_000, VCO_090, VCO_180, VCO_270) at a dynamically-weighted XOR gate comprising four logic branches (310, 320, 330, 340), each logic branch enabled responsive to a different respective input logic AND combination of the reference clock signal and the phase of the local oscillator signal; generating a plurality of weighted segments (510, 520, 530, 540) of a phase-error signal, the plurality of weighted segments comprising (i) positive weighted segments (510, 530) generated by a first subset of the four logic branches when the reference clock signal and the phase of the local oscillator signal have equal logic levels and (ii) negative weighted segments (520, 540) generated by a second subset of the four logic branches when the reference clock signal and the phase of the local oscillator signal have different logic levels, each weighted segment of the phase-error signal having a respective weight selectively applied by a corresponding logic branch of the four logic branches, wherein at least two weighted segments of the plurality of weighted segments have different weights; generating an aggregate control signal based on an aggregation of the weighted segments of the phase-error signal; and outputting the aggregate control signal as a current-mode output for controlling a local oscillator generating the phase of the local oscillator signal, the local oscillator configured to induce a phase offset into the local oscillator signal in response to the aggregate control signal. receiving a reference clock signal (CK_Ref) and a phase of a local oscillator signal (VCO_000, VCO_090, VCO_180, VCO_270) at a dynamically-weighted XOR gate comprising four logic branches (310, 320, 330, 340), each logic branch enabled responsive to a different respective input logic AND combination of the reference clock signal and the phase of the local oscillator signal; generating a plurality of weighted segments (510, 520, 530, 540) of a phase-error signal, the plurality of weighted segments comprising (i) positive weighted segments (510, 530) generated by a first subset of the four logic branches when the reference clock signal and the phase of the local oscillator signal have equal logic levels and (ii) negative weighted segments (520, 540) generated by a second subset of the four logic branches when the reference clock signal and the phase of the local oscillator signal have different logic levels, each weighted segment of the phase-error signal having a respective weight selectively applied by a corresponding logic branch of the four logic branches, wherein at least two weighted segments of the plurality of weighted segments have different weights; generating an aggregate control signal based on an aggregation of the weighted segments of the phase-error signal; and outputting the aggregate control signal as a current-mode output for controlling a local oscillator generating the phase of the local oscillator signal, the local oscillator configured to induce a phase offset into the local oscillator signal in response to the aggregate control signal.
A method for deploying a new sensor in a sensor network having an existing sensor, comprising: receiving information relating to said new sensor; obtaining deployment information relating to one or more existing sensors; determining similarity information for said new sensor based on said received information relating to said new sensor and said obtained deployment information relating to said one or more existing sensors; the method further characterized in that it comprises based at least in part on said similarity information, determining a sleeping pattern for said new sensor such that said new sensor has a duty cycle or awake-state duration that is different than at least one of said one or more existing sensors; and configuring said new sensor in accordance with said determined sleeping pattern. receiving information relating to said new sensor; obtaining deployment information relating to one or more existing sensors; determining similarity information for said new sensor based on said received information relating to said new sensor and said obtained deployment information relating to said one or more existing sensors; the method further characterized in that it comprises based at least in part on said similarity information, determining a sleeping pattern for said new sensor such that said new sensor has a duty cycle or awake-state duration that is different than at least one of said one or more existing sensors; and configuring said new sensor in accordance with said determined sleeping pattern.
Radar sensor for a vehicle, having at least one radar sensor housing, in which at least one radar antenna and at least one printed circuit board are arranged, wherein the radar sensor housing has at least one basic housing part having an installation side, on which the at least one radar antenna and the at least one printed circuit board are introduced, and a radome, with which the installation side is covered and through which signals transmitted by the at least one radar antenna and/or signals that are to be received can pass during the operation of the radar sensor, wherein the radar sensor housing has a plurality of elastic clamp elements, with which the radome can be attached to the at least one basic housing part, wherein the radome has at least one electrical connection element, which has at least one inner contact section for making electric contact with the at least one printed circuit board within the radar sensor housing and at least one outer contact section for connecting to at least one electrical line outside the radar sensor housing, characterized in that the at least one inner contact section is configured as a surface contact, has at least one curvature, and serves for making electric contact with a corresponding contact surface on the at least one printed circuit board, and in that a mechanical basic tension, with which the at least one inner contact section is pressed against the at least one contact surface of the at least one printed circuit board, is realized with the aid of the elastic clamp elements.
An online sample manager of a liquid chromatography system, comprising: a fluidic tee having a first inlet port, a second inlet port, and an outlet port; a diluent pump configured to move a diluent from a diluent source to the first inlet port of the fluidic tee; a process-selection valve having a plurality of fluidic intake ports for coupling to different process sample sources for acquiring process samples therefrom, and further having an outlet port, the process-selection valve configurable to select any one of the fluidic intake ports; a pumping system configured to move the acquired process sample from the process-selection valve into the second inlet port of the fluidic tee while the diluent pump is moving diluent to the first inlet port of the fluidic tee, such that the process sample merges with the diluent arriving at the first inlet port to produce a diluted process sample that flows out from the outlet port of the fluidic tee; and an injection valve having a first fluidic port in fluidic communication with the outlet port of the fluidic tee to receive the diluted process sample therefrom, a second fluidic port for receiving solvent from a solvent delivery system, a third fluidic port, a fourth fluidic port, and a sample loop connected between the third fluidic port and fourth fluidic port. a fluidic tee having a first inlet port, a second inlet port, and an outlet port; a diluent pump configured to move a diluent from a diluent source to the first inlet port of the fluidic tee; a process-selection valve having a plurality of fluidic intake ports for coupling to different process sample sources for acquiring process samples therefrom, and further having an outlet port, the process-selection valve configurable to select any one of the fluidic intake ports; a pumping system configured to move the acquired process sample from the process-selection valve into the second inlet port of the fluidic tee while the diluent pump is moving diluent to the first inlet port of the fluidic tee, such that the process sample merges with the diluent arriving at the first inlet port to produce a diluted process sample that flows out from the outlet port of the fluidic tee; and an injection valve having a first fluidic port in fluidic communication with the outlet port of the fluidic tee to receive the diluted process sample therefrom, a second fluidic port for receiving solvent from a solvent delivery system, a third fluidic port, a fourth fluidic port, and a sample loop connected between the third fluidic port and fourth fluidic port.
A grass trimmer (100, 400, 500, 900), comprising: a trimming head (110, 210, 310, 410, 510, 610, 710, 810, 810', 810", 913, 940, 940', 950, 961); a driving device (120, 420, 520, 620) for driving the trimming head to rotate so as to cut vegetation; and an operating device (130, 430, 530, 730) for a user to operate so as to control the driving device; wherein the trimming head comprises a spool (111, 211, 311, 411, 511, 611, 811, 811', 941, 941', 951) and a line holding member (112, 212, 312, 412, 512, 612, 712, 812, 812', 812", 942, 942', 952), the spool is used to wind a cutting line (101, 401, 501, 701), and the line holding member is formed with a line holding structure (412h, 943a, 943a') allowing the cutting line to pass through or bypass, wherein the driving device comprises a motor (121, 421, 521, 621, 954, 962), and the grass trimmer has a cutting mode for cutting vegetation, characterized in that the grass trimmer also comprises an auto-winding mode for winding the cutting line onto the spool, wherein in the auto-winding mode, the motor drives at least one of the spool and the line holding member to make the spool and the line holding member rotate relatively so that the cutting line is wound on the spool automatically. a trimming head (110, 210, 310, 410, 510, 610, 710, 810, 810', 810", 913, 940, 940', 950, 961); a driving device (120, 420, 520, 620) for driving the trimming head to rotate so as to cut vegetation; and an operating device (130, 430, 530, 730) for a user to operate so as to control the driving device; wherein the trimming head comprises a spool (111, 211, 311, 411, 511, 611, 811, 811', 941, 941', 951) and a line holding member (112, 212, 312, 412, 512, 612, 712, 812, 812', 812", 942, 942', 952), the spool is used to wind a cutting line (101, 401, 501, 701), and the line holding member is formed with a line holding structure (412h, 943a, 943a') allowing the cutting line to pass through or bypass, wherein the driving device comprises a motor (121, 421, 521, 621, 954, 962), and the grass trimmer has a cutting mode for cutting vegetation, characterized in that the grass trimmer also comprises an auto-winding mode for winding the cutting line onto the spool, wherein in the auto-winding mode, the motor drives at least one of the spool and the line holding member to make the spool and the line holding member rotate relatively so that the cutting line is wound on the spool automatically.
Heat exchanger comprising a tube bundle with at least one spacer plane, - wherein a plurality of tube rows and several rod-like supports are included in at least one spacer plane, - wherein each rod-like support bears several retention elements - wherein each retention element features a spacing element with an opening so that a rod-like support may go through the respective retention element, - wherein each retention element features two tubular guiding elements, - wherein the spacing element of each retention element is positioned between the tubular guiding elements and - wherein in each tubular guiding element a tube is retained at each opposing side of the support, characterised in that - each retention element is one piece that is injection moulded or extruded from plastic. - wherein a plurality of tube rows and several rod-like supports are included in at least one spacer plane, - wherein each rod-like support bears several retention elements - wherein each retention element features a spacing element with an opening so that a rod-like support may go through the respective retention element, - wherein each retention element features two tubular guiding elements, - wherein the spacing element of each retention element is positioned between the tubular guiding elements and - wherein in each tubular guiding element a tube is retained at each opposing side of the support, - each retention element is one piece that is injection moulded or extruded from plastic.
Method for locating wheels (2a-2d) of a vehicle, wherein at least one wheel has wheel electronics (3a-3d), wherein the following steps are executed by the vehicle: - reception of a signal from the wheel electronics which permits conclusions about a time (t 0) at which the wheel assumed a first rotary angle position (α); - generation of first rotary angle information (t 0) based on the signal; - determination of second rotary angle positions (β 1 - β 4) of the wheels by sensors (4a - 4d), which are each assigned to a specific position on the vehicle; - provision of second bits of rotary angle information (t a - t d) based on the second rotary angle positions (β 1 - β 4); - comparison of the first rotary angle information (t 0) with the second bits of rotary angle information (t a - t d) and - location of the wheel assigned to the wheel electronics depending on this comparison; wherein - the signal consists of a plurality of packets (7a-7c) which are received with a delay, and - the step of generating the first rotary angle information contains the step of determining the time (t 0) at which the wheel assumed the first rotary angle position based on one of the plurality of packets (7a-7c), characterized in that the following steps are executed in addition by the vehicle: - determination of at least one time interval (dt 1, dt 2) between the packets (S9, S11) and - provision of at least one estimated value (S10, S12) for the at least one time interval based on the determined at least one time interval. - reception of a signal from the wheel electronics which permits conclusions about a time (t 0) at which the wheel assumed a first rotary angle position (α); - generation of first rotary angle information (t 0) based on the signal; - determination of second rotary angle positions (β 1 - β 4) of the wheels by sensors (4a - 4d), which are each assigned to a specific position on the vehicle; - provision of second bits of rotary angle information (t a - t d) based on the second rotary angle positions (β 1 - β 4); - comparison of the first rotary angle information (t 0) with the second bits of rotary angle information (t a - t d) and - location of the wheel assigned to the wheel electronics depending on this comparison; - the signal consists of a plurality of packets (7a-7c) which are received with a delay, and - the step of generating the first rotary angle information contains the step of determining the time (t 0) at which the wheel assumed the first rotary angle position based on one of the plurality of packets (7a-7c), - determination of at least one time interval (dt 1, dt 2) between the packets (S9, S11) and - provision of at least one estimated value (S10, S12) for the at least one time interval based on the determined at least one time interval.
An electrophotographic photosensitive member comprising: a support; and a photosensitive layer (102, 103, 104) formed on the support; characterized in that a surface layer (103, 104) of the electrophotographic photosensitive member comprises a polymerized product of a composition comprising a charge transporting compound with a polymerizable functional group represented by formula below, where: R 1 and R 2 each independently represent a hydrogen atom or an unsubstituted straight alkyl group, and at least one of R 1 and R 2 is an unsubstituted straight alkyl group. a support; and a photosensitive layer (102, 103, 104) formed on the support; characterized in that a surface layer (103, 104) of the electrophotographic photosensitive member comprises a polymerized product of a composition comprising a charge transporting compound with a polymerizable functional group represented by formula below, R 1 and R 2 each independently represent a hydrogen atom or an unsubstituted straight alkyl group, and at least one of R 1 and R 2 is an unsubstituted straight alkyl group.