mhurhangee/patent-ind-claim-en huggingface dataset:
A multiple-image display body comprising: a spacer layer including a first surface and a second surface opposite to the first surface, wherein the spacer layer has the form of a thin film; a line tone barrier layer stacked on the first surface of the spacer layer , wherein the line tone barrier layer includes first regions , which transmit electromagnetic waves in at least some wavelength ranges, and second regions , which absorb electromagnetic waves in at least some wavelength ranges, the second regions in a surface contacting the spacer layer have substantially the same width and shape, and the second regions are arranged at equal intervals sandwiching at least portions of the first regions to form a line tone pattern; and a multiple-image formation layer stacked on the second surface of the spacer layer , wherein the multiple-image formation layer includes images that are visible when observed from specific angles over the first regions of the line tone barrier , wherein each of the images includes a third region , which scatters electromagnetic waves in at least some wavelength ranges, and a fourth region , which absorbs electromagnetic waves in at least some wavelength ranges, and the image is formed by a contrast resulting from an area ratio of the third region and the fourth region , characterised in that the fourth region has a corrugated structure , and the corrugated structure includes recesses filled with electromagnetic wave absorbing particles (17; 38) that absorb electromagnetic waves in at least some wavelength ranges. a spacer layer including a first surface and a second surface opposite to the first surface, wherein the spacer layer has the form of a thin film; a line tone barrier layer stacked on the first surface of the spacer layer , wherein the line tone barrier layer includes first regions , which transmit electromagnetic waves in at least some wavelength ranges, and second regions , which absorb electromagnetic waves in at least some wavelength ranges, the second regions in a surface contacting the spacer layer have substantially the same width and shape, and the second regions are arranged at equal intervals sandwiching at least portions of the first regions to form a line tone pattern; and a multiple-image formation layer stacked on the second surface of the spacer layer , wherein the multiple-image formation layer includes images that are visible when observed from specific angles over the first regions of the line tone barrier , wherein each of the images includes a third region , which scatters electromagnetic waves in at least some wavelength ranges, and a fourth region , which absorbs electromagnetic waves in at least some wavelength ranges, and the image is formed by a contrast resulting from an area ratio of the third region and the fourth region , characterised in that the fourth region has a corrugated structure , and the corrugated structure includes recesses filled with electromagnetic wave absorbing particles (17; 38) that absorb electromagnetic waves in at least some wavelength ranges.
A transceiver for a wireless communication system, the transceiver comprising: a first circuitry configured to convert a digital signal having a third bandwidth, which comprises a first digital signal having a first bandwidth corresponding to a first band and a second digital signal having a second bandwidth corresponding to a second band, into an analog signal; a second circuitry configured to separate the analog signal into a first analog signal corresponding to the first band and a second analog signal corresponding to the second band, up-convert the first analog signal and the second analog signal to generate a first radio frequency, RF, signal in the first band and a second RF signal in the second band, and output an RF signal having the third bandwidth, which comprises the first RF signal and the second RF signal; and a third circuitry connected to an antenna, including a frequency combiner/separator configured to separate the RF signal from the second circuitry into the first RF signal and the second RF signal, and configured to adjust a phase of the first RF signal for beamforming in the first band, and adjust a phase of the second RF signal for beamforming in the second band. a first circuitry configured to convert a digital signal having a third bandwidth, which comprises a first digital signal having a first bandwidth corresponding to a first band and a second digital signal having a second bandwidth corresponding to a second band, into an analog signal; a second circuitry configured to separate the analog signal into a first analog signal corresponding to the first band and a second analog signal corresponding to the second band, up-convert the first analog signal and the second analog signal to generate a first radio frequency, RF, signal in the first band and a second RF signal in the second band, and output an RF signal having the third bandwidth, which comprises the first RF signal and the second RF signal; and a third circuitry connected to an antenna, including a frequency combiner/separator configured to separate the RF signal from the second circuitry into the first RF signal and the second RF signal, and configured to adjust a phase of the first RF signal for beamforming in the first band, and adjust a phase of the second RF signal for beamforming in the second band.
A leisure sports scooter, comprising a scooter body , wheels and a handlebar , a folding mechanism being provided between the handlebar and the scooter body, the folding mechanism comprising a hinging segment provided at a lower end of the handlebar and connected with a connecting base through a rotating shaft , wherein the hinging segment is a handlebar joint fixed at a lower handlebar segment of the handlebar or the hinging segment is a lower handlebar segment of the handlebar integrated with the handlebar; the rotating shaft is positioned on the connecting base , the handlebar can move up and down relatively to the rotating shaft , and a matched positioning mechanism is provided between the handlebar and the connecting base ; when the handlebar moves to a first position, the handlebar and the connecting base are positioned, and the positioning mechanism prevents the handlebar from rotating; when the handlebar moves to a second position, the positioning mechanism is disabled, and when the handlebar is rotated, the handlebar can rotate around the rotating shaft to be folded or unfolded; and the folding mechanism is equipped with a safety mechanism preventing the handlebar from moving upon positioning of the handlebar, characterized in that the safety mechanism comprises a safety catch provided within the handlebar, and the safety catch is provided with a button and a positioning bump ; the button is passed through the handlebar and the hinging segment , with one end of the button exposed outside the hinging segment ; the handlebar and the hinging segment are connected by the positioning bump ; on one side of the safety catch , a safety spring is provided, with one end of the safety spring resisted against the safety catch while the other end resisted against the handlebar; and, by pressing the button , the positioning bump is driven to relieve the connection between the connecting base and the hinging segment .
An intraocular lens system comprising: an anterior light-converging intraocular lens , the anterior lens having an anterior surface , a posterior surface ; a posterior light-diverging intraocular lens , located posteriorly to said anterior lens , the posterior lens having an anterior surface and a posterior surface ; and, an anterior lens positioning means and a posterior lens positioning means , wherein the anterior positioning means is configured such that when the anterior lens is positioned within the eye, the anterior positioning means locates the anterior lens so that it is aligned with the optical axis of the eye; and wherein the posterior lens positioning means is configured such that when the posterior lens is positioned within the eye, the posterior positioning means locates the posterior lens in so that it is aligned with the optical axis of the eye; characterised in that each of said surfaces of the anterior lens and the posterior lens are aspherical to provide a continuum of retinal images to be focused at the retina in an area between two retinal eccentricities , and wherein the radius of curvatures and the conic constants of said surfaces starting from the anterior surface of the anterior lens, are respectively 6.6 mm and -9, - 5.7 mm and -0.6, -13.3 mm and -110, and 4mm and -7. an anterior light-converging intraocular lens , the anterior lens having an anterior surface , a posterior surface ; a posterior light-diverging intraocular lens , located posteriorly to said anterior lens , the posterior lens having an anterior surface and a posterior surface ; and, an anterior lens positioning means and a posterior lens positioning means , wherein the anterior positioning means is configured such that when the anterior lens is positioned within the eye, the anterior positioning means locates the anterior lens so that it is aligned with the optical axis of the eye; and wherein the posterior lens positioning means is configured such that when the posterior lens is positioned within the eye, the posterior positioning means locates the posterior lens in so that it is aligned with the optical axis of the eye; characterised in that each of said surfaces of the anterior lens and the posterior lens are aspherical to provide a continuum of retinal images to be focused at the retina in an area between two retinal eccentricities , and wherein the radius of curvatures and the conic constants of said surfaces starting from the anterior surface of the anterior lens, are respectively 6.6 mm and -9, - 5.7 mm and -0.6, -13.3 mm and -110, and 4mm and -7.
A debris removal system , comprising: a sheath extending from a proximal end to a distal end and including a lumen extending therethrough, the sheath being configured to deliver fluid to a target surgical site; a scope device comprising an elongated shaft extending from a distal end thereof, the elongated shaft configured to be inserted through the lumen of the sheath ; a vibration motor configured to be coupled to the elongated shaft , the vibration motor providing vibration energy along the length of the elongated shaft to dislodge debris within the target surgical site; and a vacuum pump connected to the elongated shaft to suction dislodged debris from the target surgical site through the elongated shaft . a sheath extending from a proximal end to a distal end and including a lumen extending therethrough, the sheath being configured to deliver fluid to a target surgical site; a scope device comprising an elongated shaft extending from a distal end thereof, the elongated shaft configured to be inserted through the lumen of the sheath ; a vibration motor configured to be coupled to the elongated shaft , the vibration motor providing vibration energy along the length of the elongated shaft to dislodge debris within the target surgical site; and a vacuum pump connected to the elongated shaft to suction dislodged debris from the target surgical site through the elongated shaft .
Hand-held power tool having a tool holder for holding a tool , a pneumatic impact mechanism for periodically generating strikes on the tool held in the tool holder , wherein the pneumatic impact mechanism has a guide tube , an exciter piston , a striker , a pneumatic chamber which is closed off in the guide tube by the exciter piston and the striker , and a compensation opening in the guide tube for aerating the pneumatic chamber , characterized in that the guide tube has a cap , wherein the cap forms a canopy in relation to the compensation opening on an outer side of the guide tube and the cap is open in an opening direction , which is predominantly tangential to the guide tube , and in that the guide tube has further radial openings and the compensation opening has the smallest flow cross section. a tool holder for holding a tool , a pneumatic impact mechanism for periodically generating strikes on the tool held in the tool holder , wherein the pneumatic impact mechanism has a guide tube , an exciter piston , a striker , a pneumatic chamber which is closed off in the guide tube by the exciter piston and the striker , and a compensation opening in the guide tube for aerating the pneumatic chamber , characterized in that the guide tube has a cap , wherein the cap forms a canopy in relation to the compensation opening on an outer side of the guide tube and the cap is open in an opening direction , which is predominantly tangential to the guide tube , and in that the guide tube has further radial openings and the compensation opening has the smallest flow cross section.
Connector for connecting electric and electronic cables wherein the connector has a wall thickness of ≤ 0.5 mm, comprising a polymer composition comprising: a. poly(butylene terephthalate); b. glass fibres; and c. 1.5 - 10.0 wt% polyethylene with regard to the total weight of the polymer composition. a. poly(butylene terephthalate); b. glass fibres; and c. 1.5 - 10.0 wt% polyethylene
A light emitting apparatus comprising: a redirector having a frustoconical shape disposed about an axis , the redirector having a first end of the frustoconical shape and a second end of the frustoconical shape, wherein the first end is narrower than the second end , the redirector defining a cavity between the first end and second end ; a power source receiving area defined entirely within the cavity defined by the redirector ; and a light source disposed around the redirector proximate the first end of the redirector about the axis , wherein the light source is powered by a power source received within the power source receiving area and is configured to project light substantially parallel to the axis , toward the second end of the redirector . a redirector having a frustoconical shape disposed about an axis , the redirector having a first end of the frustoconical shape and a second end of the frustoconical shape, wherein the first end is narrower than the second end , the redirector defining a cavity between the first end and second end ; a power source receiving area defined entirely within the cavity defined by the redirector ; and a light source disposed around the redirector proximate the first end of the redirector about the axis , wherein the light source is powered by a power source received within the power source receiving area and is configured to project light substantially parallel to the axis , toward the second end of the redirector .
Tugger train trailer with a frame and drive-on surfaces for receiving a trolley cart , characterized in that further transport-vehicle drive-on surfaces are provided for an autonomous transport vehicle moving the trolley cart , and therefore a unit consisting of trolley cart and autonomous transport vehicle can drive thereon.
An optics cup for holding a sample for use in an optical analysis comprising: a generally rectangular-shaped container adapted to contain the sample, said generally rectangular-shaped container including a pair of side walls having a longitudinal axis (LA) therebetween, a first end wall , and a second end wall spaced apart from the first end wall , and a floor , said generally rectangular-shaped container having a rectangular opening for receiving the sample and a lower tapered area extending from the first end wall inwardly and downwardly relative to the rectangular opening , wherein the floor is curved and has the shape of an inverted arch extending continuously along the entire length of the floor , and wherein the inverted arch is symmetric about the longitudinal axis (LA), characterized in that the lower tapered area extends downwardly to the curved bottom of the floor , and in that the lower tapered area is reflective in order to reflect an incoming illumination beam (L2) to the second end wall . a generally rectangular-shaped container adapted to contain the sample, said generally rectangular-shaped container including a pair of side walls having a longitudinal axis (LA) therebetween, a first end wall , and a second end wall spaced apart from the first end wall , and a floor , said generally rectangular-shaped container having a rectangular opening for receiving the sample and a lower tapered area extending from the first end wall inwardly and downwardly relative to the rectangular opening , wherein the floor is curved and has the shape of an inverted arch extending continuously along the entire length of the floor , and wherein the inverted arch is symmetric about the longitudinal axis (LA), characterized in that the lower tapered area extends downwardly to the curved bottom of the floor , and in that the lower tapered area is reflective in order to reflect an incoming illumination beam (L2) to the second end wall .
A method for monitoring personal protection equipment (PPE) compliance comprising: assigning one or more PPE device (104; 106; 108) to a user, wherein each of the PPE devices comprises a sensor module (105; 107; 109); assigning a personalized user identification (ID) module to a user; receiving, by the user ID module, information from the sensor module via wireless communication; determining whether the PPE device is active based on the information received from the sensor module; when the PPE device is determined to be active, sending, by the user ID module, information to a supervisor console indicating PPE compliance; displaying, by the supervisor console, that the PPE status is compliant; when the PPE device is determined to be inactive, sending, by the user ID module, information to the supervisor console indicating PPE noncompliance; displaying, by the supervisor console, that the PPE status is noncompliant; and taking corrective action, by the supervisor, to ensure PPE compliance. assigning one or more PPE device (104; 106; 108) to a user, wherein each of the PPE devices comprises a sensor module (105; 107; 109); assigning a personalized user identification (ID) module to a user; receiving, by the user ID module, information from the sensor module via wireless communication; determining whether the PPE device is active based on the information received from the sensor module; when the PPE device is determined to be active, sending, by the user ID module, information to a supervisor console indicating PPE compliance; displaying, by the supervisor console, that the PPE status is compliant; when the PPE device is determined to be inactive, sending, by the user ID module, information to the supervisor console indicating PPE noncompliance; displaying, by the supervisor console, that the PPE status is noncompliant; and taking corrective action, by the supervisor, to ensure PPE compliance.
A pyro-metallurgical process for producing at least one non-ferrous metal or a compound thereof, wherein said metal is selected from the group consisting of arsenic (As), antimony (Sb), lead (Pb), cadmium (Cd), mercury (Hg), silver (Ag), tin (Sn), nickel (Ni), and zinc (Zn), and wherein at least one raw material is fed into a rotary kiln, wherein said at least one raw material comprises at least said metal, and wherein said raw material is heated to produce a volatized material, in which the non-ferrous metal or compound thereof is produced from the volatized material, in which process a magnesium-based additive, is additionally fed in the rotary kiln, which magnesium-based additive is heated together with said raw material to produce at least the volatized material and a solid product, and the magnesium-based additive is fed in the rotary kiln in an amount providing between 0.03 and 5.00 wt.% of magnesium oxide in the solid product, thereby counteracting ring formation in the rotary kiln.
Display with two juxtaposed digits comprising an arrangement of electrodes, the display comprising a left digit and a right digit , the right digit comprising an upper electrode , a median electrode and a lower electrode , the median electrode extending between the upper electrode and the lower electrode , the right digit also comprising a lateral upper left electrode and a lateral lower left electrode , and a lateral upper right electrode and a lateral lower right electrode , the left digit comprising an upper electrode , a median electrode and a lower electrode , the median electrode extending between the upper electrode and the lower electrode , the left digit also comprising a lateral upper left electrode and a lateral lower left electrode , as well as a lateral upper right electrode and a lateral lower right electrode , the display being such that, in the left digit , the upper electrode , the median electrode and the lower electrode are each formed of a first and second point-shaped electrode (24a, 24b; 26a, 26b; 28a, 28b), and that a first additional electrode is provided between the lateral upper left electrode and the lateral upper right electrode of the left digit , the first additional electrode being adjacent to the lateral upper right electrode , whilst a second additional electrode is provided between the lateral lower left electrode and the lateral lower right electrode of the left digit , the second additional electrode being adjacent to the lateral lower right electrode , the display being characterized in that the three unique point-shaped electrodes are arranged one above the other between the left digit and the right digit , respectively at the height of the upper electrode , of the median electrode and the lower electrode of the right digit .
A method of determining an extremum value in an array of data stored in a memory system of a processing system and a corresponding address of the extremum value in the array of data stored in the memory system of the processing system, the method comprising the steps of : initializing a reference extremum value and a corresponding address of the reference extremum value to a previous extremum value of a previous array of data, and a corresponding address of the previous extremum value in the previous array of data; storing the reference extremum value and the corresponding address of the reference extremum value in the memory system of the processing system; receiving an input array of data from a memory system; determining an input extremum value of the input array of data; determining a corresponding address of the input extremum value in the input array of data; and comparing the input extremum value with the reference extremum value stored in the memory system of the processing system to determine an output extremum value and a corresponding address of the output extremum value, based on the comparison; wherein determining the input extremum value of the input array of data comprises comparing values of the input array of data to compute intermediate values, and comparing the intermediate values to compute the input extremum value. initializing a reference extremum value and a corresponding address of the reference extremum value to a previous extremum value of a previous array of data, and a corresponding address of the previous extremum value in the previous array of data; storing the reference extremum value and the corresponding address of the reference extremum value in the memory system of the processing system; receiving an input array of data from a memory system; determining an input extremum value of the input array of data; determining a corresponding address of the input extremum value in the input array of data; and comparing the input extremum value with the reference extremum value stored in the memory system of the processing system to determine an output extremum value and a corresponding address of the output extremum value, based on the comparison; wherein determining the input extremum value of the input array of data comprises comparing values of the input array of data to compute intermediate values, and comparing the intermediate values to compute the input extremum value.