mhurhangee/patent-ind-claim-en huggingface dataset:
A coreless roll of a tissue paper product, such as toilet paper or household towel, made of a spirally wound continuous web of tissue paper having a first end and a second end, the web of absorbent material being wound such as to define an axially extending inner hole centrally positioned relative to the coreless roll and such that the first end is located on the outer side of the coreless roll and the second end is located at the inner hole, wherein the tissue paper product comprises at least two plies, at least one of the plies being an embossed ply with embossments, and all plies of the tissue paper product being made of Conventional Wet Press (CWP) paper, wherein the coreless roll has an outer diameter in the range of from 95 to 150 mm, a diameter of the inner hole being in the range of from 20 to 50 mm, and the density of the coreless roll being in a range of 110 to 160 kg/m 3 , the tissue paper product comprising glued areas, where the plies are ply-bonded to each other using an adhesive such as a lamination glue, and non-glued areas between the glued areas, wherein at least some of the glued areas are glued embossed areas that comprise embossments of the embossed ply, wherein a sum of areas of all glued embossed areas is at least 6% of a sum of the areas of all glued areas and of areas of all non-glued areas, and wherein, over at least 80% of the glued embossed areas, a maximum distance between adjacent embossments of the embossed ply is 2.5 mm or less, optionally 2.0 mm or less, or 1.5 mm or less. wherein the tissue paper product comprises at least two plies, at least one of the plies being an embossed ply with embossments, and all plies of the tissue paper product being made of Conventional Wet Press (CWP) paper, wherein the coreless roll has an outer diameter in the range of from 95 to 150 mm, a diameter of the inner hole being in the range of from 20 to 50 mm, and the density of the coreless roll being in a range of 110 to 160 kg/m 3 , the tissue paper product comprising glued areas, where the plies are ply-bonded to each other using an adhesive such as a lamination glue, and non-glued areas between the glued areas, wherein at least some of the glued areas are glued embossed areas that comprise embossments of the embossed ply, wherein a sum of areas of all glued embossed areas is at least 6% of a sum of the areas of all glued areas and of areas of all non-glued areas, and wherein, over at least 80% of the glued embossed areas, a maximum distance between adjacent embossments of the embossed ply is 2.5 mm or less, optionally 2.0 mm or less, or 1.5 mm or less.
A surface wave excitation device, comprising: a multi-layer structure and a transmission line , wherein the multi-layer structure comprises at least five layers of PCBs (11-15, 21-27); the transmission line is disposed on a wire layer PCB of the at least five layers of PCBs (11-15, 21-27), and PCBs of a same quantity of layers are respectively disposed above and below the wire layer PCB ; a copper wire is disposed on each layer of PCB of the at least five layers of PCB (11-15, 21-27), and the copper wire on each layer of PCB forms a closed region; closed regions on PCBs that are respectively disposed above and below the wire layer PCB and that have a same distance from the wire layer PCB are in a same shape, and a closed region on a PCB farther away from the wire layer PCB occupies a larger area; and there are two closed regions on the wire layer PCB , one of which is disposed on one side of the transmission line , and the other is disposed on the other side of the transmission line , and shapes of the two closed regions are mutually symmetrical with the transmission line as a symmetry axis; and the copper wire disposed on each layer of PCB is configured to convert a signal propagated in a transverse electric magnetic, TEM, mode to a surface wave propagated in a transverse magnetic TM mode, and the transmission line is configured to guide the surface wave propagation.
A method for calibrating a device for optically detecting the three-dimensional geometry of objects , wherein optical properties of optical elements of the device are measured prior to the detection and stored on a memory medium, thereby generating a first calibration data set, and wherein the first calibration data set is used during the detection of the three-dimensional geometry of the object to computationally equalize two-dimensional surface characteristics of the object that are recorded and/or projected by the optical elements , characterized by the generation of a second calibration data set by measuring the optical properties of the optical elements after at least one transparent layer of a first type has been at least partially situated and/or replaced in a beam path of the optical elements .
An LED display unit, comprising a front body , a lamp plate and a rear body , wherein the lamp plate is bendable and flexible, the rear body comprises a plurality of rear body units , the front body is covered on one side of the lamp plate provided with LED lamps, each of the rear body units is fixedly connected to a side of the lamp plate facing away from the LED lamps, and adjacent rear body units are arranged at intervals; and characterized in that a plurality of the rear body units are divided into a rear body unit B , a rear body unit A for fixed connection with the box of an LED display screen and a rear body unit C for fixed connection with the power box of the LED display screen, the rear body unit A are located at the left and right ends of the rear body , the rear body unit C is located in the middle of the rear body , and the rear body unit B are located between the rear body unit A and the rear body unit C .
A slide rail assembly , comprising: a first rail ; a second rail movable with respect to the first rail ; a third rail mounted between the first rail and the second rail , wherein the third rail comprises an upper wall , a lower wall , and a sidewall , the sidewall being connected between the upper wall and the lower wall of the third rail , wherein the upper wall , the lower wall , and the sidewall of the third rail jointly define a channel ; and at least one supporting structure disposed at a position relative to the first rail ; at least one extension member coupled to the first rail at a position adjacent to a rear portion of the first rail , wherein the at least one supporting structure is connected to the first rail via the at least one extension member , and wherein the extension member includes an upper portion , a lower portion , and a side portion connected between the upper portion and the lower portion ; the upper portion , the lower portion , and the side portion jointly define an extension channel , through which the second rail extends; and the at least one supporting structure is located in the extension channel ; wherein, when the second rail is at a predetermined position (P) relative to the first rail , the third rail supports a rail section of the second rail , and the at least one supporting structure supports a portion of the remaining rail section of the second rail ; wherein the extension channel is aligned with or faces the channel of the third rail . a first rail ; a second rail movable with respect to the first rail ; a third rail mounted between the first rail and the second rail , wherein the third rail comprises an upper wall , a lower wall , and a sidewall , the sidewall being connected between the upper wall and the lower wall of the third rail , wherein the upper wall , the lower wall , and the sidewall of the third rail jointly define a channel ; and at least one supporting structure disposed at a position relative to the first rail ; at least one extension member coupled to the first rail at a position adjacent to a rear portion of the first rail , wherein the at least one supporting structure is connected to the first rail via the at least one extension member , and wherein the extension member includes an upper portion , a lower portion , and a side portion connected between the upper portion and the lower portion ; the upper portion , the lower portion , and the side portion jointly define an extension channel , through which the second rail extends; and the at least one supporting structure is located in the extension channel ; wherein, when the second rail is at a predetermined position (P) relative to the first rail , the third rail supports a rail section of the second rail , and the at least one supporting structure supports a portion of the remaining rail section of the second rail ; wherein the extension channel is aligned with or faces the channel of the third rail .
A method of discharging fuel and an amount of air into a furnace space wherein the fuel is burned such that flue gases having low NO x content and low CO content are formed therefrom, the method comprises: mixing a first portion of the fuel as primary fuel and substantially all of the air to form a lean primary fuel-air mixture; discharging the lean primary fuel-air mixture into the furnace space within a primary combustion zone defined by a burner tile such that there is a furnace environment surrounding the burner tile ; burning the primary fuel-air mixture in the primary combustion zone to produce a flame and thus generated flue gases, wherein the primary combustion zone has a first end and a second end, and the lean primary fuel-air mixture is introduced so that the flame is anchored adjacent the first end and the generated flue gases are discharged into the furnace environment at the second end; and injecting secondary stage fuel gas as a second portion of the fuel from staged fuel tips outside of the burner tile to a point downstream from the discharge outlet of the burner tile . mixing a first portion of the fuel as primary fuel and substantially all of the air to form a lean primary fuel-air mixture; discharging the lean primary fuel-air mixture into the furnace space within a primary combustion zone defined by a burner tile such that there is a furnace environment surrounding the burner tile ; burning the primary fuel-air mixture in the primary combustion zone to produce a flame and thus generated flue gases, wherein the primary combustion zone has a first end and a second end, and the lean primary fuel-air mixture is introduced so that the flame is anchored adjacent the first end and the generated flue gases are discharged into the furnace environment at the second end; and injecting secondary stage fuel gas as a second portion of the fuel from staged fuel tips outside of the burner tile to a point downstream from the discharge outlet of the burner tile .
A control unit of a temperature measurement system for a road construction machine ; wherein the control unit has access to a database , a plurality of specification data sets stored on said database , wherein each of the plurality of specification data sets is assigned to a local region and comprises a temperature measurement specification (110-190) and/or a temperature measurement report specification (200-250); wherein the temperature measurement specification (110-190) defines local specific temperature requirement and/or local specific measurement procedure and/or comprises information regarding temperature measurement device setting, wherein the temperature measurement report specification defines local specific form of the report, the control unit comprises a data set selector, which is configured to select a respective specification data set out of a plurality based on a position information for the road construction machine , the position information pointing to the respective local region; and a data analyzer, which is connected to a temperature sensor and configured to analyze raw data received from the temperature sensor taking into account the selected temperature measurement specification (110-190) and/or to output a local specific temperature report based on the analyzed raw data taking into account the selected temperature measurement report specification (200-250). wherein the control unit has access to a database , a plurality of specification data sets stored on said database , wherein each of the plurality of specification data sets is assigned to a local region and comprises a temperature measurement specification (110-190) and/or a temperature measurement report specification (200-250); wherein the temperature measurement specification (110-190) defines local specific temperature requirement and/or local specific measurement procedure and/or comprises information regarding temperature measurement device setting, wherein the temperature measurement report specification defines local specific form of the report, the control unit comprises a data set selector, which is configured to select a respective specification data set out of a plurality based on a position information for the road construction machine , the position information pointing to the respective local region; and a data analyzer, which is connected to a temperature sensor and configured to analyze raw data received from the temperature sensor taking into account the selected temperature measurement specification (110-190) and/or to output a local specific temperature report based on the analyzed raw data taking into account the selected temperature measurement report specification (200-250).
A method of controlling a lighting device , comprising: receiving, at a processor , position sensor data, the position sensor data representing a position of at least one of a user's head and a user's eyes; determining, by the processor, whether the user is looking at a task area based on the position sensor data; and characterised by the method comprising: controlling, by the processor, to turn a light emitted by the lighting device on to illuminate the task area in response to determining the user is looking at the task area and to turn the light off in response to determining the user is looking away from the task area. receiving, at a processor , position sensor data, the position sensor data representing a position of at least one of a user's head and a user's eyes; determining, by the processor, whether the user is looking at a task area based on the position sensor data; and characterised by the method comprising: controlling, by the processor, to turn a light emitted by the lighting device on to illuminate the task area in response to determining the user is looking at the task area and to turn the light off in response to determining the user is looking away from the task area.
A solid form of a compound having the formula: wherein the solid form is crystalline; wherein the solid form is an anhydrate; and wherein the solid form is: a) Form I, having three or more characteristic XRPD peaks, in terms of 2-theta (± 0.2°), selected from 8.7, 9.8, 11.6, 12.7, 14.7, 15.7, 20.0, 21.4, 23.3, and 27.1 degrees; or b) Form II, having three or more characteristic XRPD peaks, in terms of 2-theta (± 0.2°), selected from 6.7, 9.5, 10.5, 14.8, 16.2, 17.0, 18.8, and 19.3 degrees. a) Form I, having three or more characteristic XRPD peaks, in terms of 2-theta (± 0.2°), selected from 8.7, 9.8, 11.6, 12.7, 14.7, 15.7, 20.0, 21.4, 23.3, and 27.1 degrees; or b) Form II, having three or more characteristic XRPD peaks, in terms of 2-theta (± 0.2°), selected from 6.7, 9.5, 10.5, 14.8, 16.2, 17.0, 18.8, and 19.3 degrees.
A method for characterizing a silicon germanium film, said method comprising: generating an X-ray beam; positioning a sample in a pathway of said X-ray beam; collecting an X-ray photoelectron spectroscopy (XPS) signal generated by bombarding said sample with said X-ray beam; collecting an X-ray fluorescence (XRF) signal generated by bombarding said sample with said X-ray beam; and determining a composition of the silicon germanium film from the XRF signal and the XPS signal, characterized by determining the composition of thin silicon germanium film on Si-containing substrate, using comparing the XRF signal and the XPS signal to a realistic material layer mixing model that scales the predicted intensity of an XPS Ge signal and an XRF Ge signal relative to a pure germanium film, constraining the remaining fraction of the silicon germanium film to Si. generating an X-ray beam; positioning a sample in a pathway of said X-ray beam; collecting an X-ray photoelectron spectroscopy (XPS) signal generated by bombarding said sample with said X-ray beam; collecting an X-ray fluorescence (XRF) signal generated by bombarding said sample with said X-ray beam; and determining a composition of the silicon germanium film from the XRF signal and the XPS signal, characterized by determining the composition of thin silicon germanium film on Si-containing substrate, using comparing the XRF signal and the XPS signal to a realistic material layer mixing model that scales the predicted intensity of an XPS Ge signal and an XRF Ge signal relative to a pure germanium film, constraining the remaining fraction of the silicon germanium film to Si.
An article of footwear comprising: an upper; and a sole assembly positioned beneath the upper, the sole assembly having a vertically extending channel formed in its bottom surface inward of a periphery of the sole assembly , the channel including a sidewall , the sole assembly comprising: a first portion having a first color; and a second portion having a second color that is different than the first color, wherein an interface between the first portion and the second portion is positioned at a central portion of the sidewall of the channel , characterized in that the first portion is formed from a single first preform that has a plurality of apertures extending through it. an upper; and a sole assembly positioned beneath the upper, the sole assembly having a vertically extending channel formed in its bottom surface inward of a periphery of the sole assembly , the channel including a sidewall , the sole assembly comprising: a first portion having a first color; and a second portion having a second color that is different than the first color, wherein an interface between the first portion and the second portion is positioned at a central portion of the sidewall of the channel , a first portion having a first color; and a second portion having a second color that is different than the first color, wherein an interface between the first portion and the second portion is positioned at a central portion of the sidewall of the channel , characterized in that the first portion is formed from a single first preform that has a plurality of apertures extending through it.
Method for the reception of a pulsed electromagnetic radiation emitted by an emitter in an optoelectronic sensor , the sensor including at least an emitter for emitting electromagnetic radiation and a receiver for receiving electromagnetic radiation and wherein the electromagnetic radiation received is converted into an electric signal, said method including the steps of: • arranging said emitter to emit a periodic pulsed electromagnetic radiation, two consecutive pulses being spaced apart by a first time interval (T off ); • before the emission of a pulse, receiving an electromagnetic radiation through said receiver , thus generating a received noise signal (s r , S1); • comparing an amplitude of said received noise signal (s r , S1) with a first threshold (V threshold1 ); • if the amplitude of said received noise signal is below said first threshold: • immediately before the emission of a pulse, receiving an electromagnetic radiation through said receiver , thus generating a received second noise signal (S2); • emitting said pulse, • receiving an electromagnetic radiation in the first time interval in correspondence with the emission of said pulse so as to generate a measurement signal (sm, S3); • subtracting an amplitude of said received measurement signal in correspondence with the emission of said pulse with an amplitude of said received second noise signal (S2); • comparing the difference with a second constant threshold (K); and not emitting said pulse otherwise, wherein the step of comparing an amplitude of said received noise signal (s r , S1) with the first threshold (V threshoid1 ) is carried out during a third time interval (T eval , T 3 ) directly previous emission of said pulse. • arranging said emitter to emit a periodic pulsed electromagnetic radiation, two consecutive pulses being spaced apart by a first time interval (T off ); • before the emission of a pulse, receiving an electromagnetic radiation through said receiver , thus generating a received noise signal (s r , S1); • comparing an amplitude of said received noise signal (s r , S1) with a first threshold (V threshold1 ); • if the amplitude of said received noise signal is below said first threshold: • immediately before the emission of a pulse, receiving an electromagnetic radiation through said receiver , thus generating a received second noise signal (S2); • emitting said pulse, • receiving an electromagnetic radiation in the first time interval in correspondence with the emission of said pulse so as to generate a measurement signal (sm, S3); • subtracting an amplitude of said received measurement signal in correspondence with the emission of said pulse with an amplitude of said received second noise signal (S2); • comparing the difference with a second constant threshold (K); and not emitting said pulse otherwise,
Method for producing a dental prosthesis with the aid of a computer, wherein the dental prosthesis comprises a prosthetic base and a plurality of prosthetic teeth , wherein the method is carried out with the use of a virtual three-dimensional dental prosthesis model of the dental prosthesis which is to be produced, and wherein the virtual three-dimensional dental prosthesis model comprises virtual prosthetic teeth and a virtual prosthetic base, characterized by the following chronological steps: A) Production of a physical occlusion plate , wherein a region of the surface of the occlusion plate is formed by a negative of the coronal sides of the virtual prosthetic teeth of the virtual dental prosthesis model, wherein the location and orientation of the virtual prosthetic teeth relative to one another corresponding to the virtual dental prosthesis model remain retained in the shape of the surface of the occlusion plate ; B) Placement and securing of preassembled prosthetic teeth on the occlusion plate , wherein the coronal sides of the preassembled prosthetic teeth are placed on the surface of the occlusion plate formed by the negative; C) Securing of the occlusion plate , with the prosthetic teeth secured therein, in a device for the layered forming of three-dimensional plastic structures; and D) Printing the prosthetic base onto the basal ends of the prosthetic teeth with the device for the layered forming of three-dimensional plastic structures on the basis of the shape of the virtual prosthetic base. A) Production of a physical occlusion plate , wherein a region of the surface of the occlusion plate is formed by a negative of the coronal sides of the virtual prosthetic teeth of the virtual dental prosthesis model, wherein the location and orientation of the virtual prosthetic teeth relative to one another corresponding to the virtual dental prosthesis model remain retained in the shape of the surface of the occlusion plate ; B) Placement and securing of preassembled prosthetic teeth on the occlusion plate , wherein the coronal sides of the preassembled prosthetic teeth are placed on the surface of the occlusion plate formed by the negative; C) Securing of the occlusion plate , with the prosthetic teeth secured therein, in a device for the layered forming of three-dimensional plastic structures; and D) Printing the prosthetic base onto the basal ends of the prosthetic teeth with the device for the layered forming of three-dimensional plastic structures on the basis of the shape of the virtual prosthetic base.