mhurhangee/patent-ind-claim-en huggingface dataset:
Terahertz measuring apparatus for run-time measurements of test objects , for wall thickness measurements, preferably also distance measurements, of the test objects , said terahertz measuring apparatus comprising: a transmitter and receiver unit (2; 2a, 2b) which is adapted to emit a terahertz radiation along an optical axis (A) and to receive reflected terahertz radiation, a controller and evaluation unit which is adapted and designed to drive the transmitter and receiver unit (2; 2a, 2b) und to evaluate measuring signals (M) of the transmitter and receiver unit (2; 2a, 2b), characterised in that the apparatus includes a beam splitting means to split up the emitted terahertz radiation into at least - one first terahertz detection beam along a first optical partial axis (A1) and - one second terahertz detection beam along a second optical partial axis (A2) different from the fist optical partial axis (A1), the apparatus further including a reflection device for reflecting the second terahertz detection beam onto said test object and reflecting the second terahertz detection beam , reflected from said test object , back towards said beam splitting means and/or said transmitter and receiver unit (2; 2a, 2b), said transmitter and receiver unit (2; 2a, 2b) being adapted to generate at least one measuring signal (M, M1, M2) from the detection beams reflected on said test object and put it out to said controller and evaluation unit which is adapted to determine at least one layer thickness of said test object . a transmitter and receiver unit (2; 2a, 2b) which is adapted to emit a terahertz radiation along an optical axis (A) and to receive reflected terahertz radiation, a controller and evaluation unit which is adapted and designed to drive the transmitter and receiver unit (2; 2a, 2b) und to evaluate measuring signals (M) of the transmitter and receiver unit (2; 2a, 2b), characterised in that the apparatus includes a beam splitting means to split up the emitted terahertz radiation into at least - one first terahertz detection beam along a first optical partial axis (A1) and - one second terahertz detection beam along a second optical partial axis (A2) different from the fist optical partial axis (A1), the apparatus further including - one first terahertz detection beam along a first optical partial axis (A1) and - one second terahertz detection beam along a second optical partial axis (A2) different from the fist optical partial axis (A1), the apparatus further including a reflection device for reflecting the second terahertz detection beam onto said test object and reflecting the second terahertz detection beam , reflected from said test object , back towards said beam splitting means and/or said transmitter and receiver unit (2; 2a, 2b), said transmitter and receiver unit (2; 2a, 2b) being adapted to generate at least one measuring signal (M, M1, M2) from the detection beams reflected on said test object and put it out to said controller and evaluation unit which is adapted to determine at least one layer thickness of said test object .
A gas blowoff nozzle , for blowing gas on a surface of a resin film , the gas blowoff nozzle comprising: - a casing provided and configured such that, - a longitudinal direction (x) of the gas blowoff nozzle is configured to extend in the width direction (x) of the resin film , and, - on a lateral face thereof configured to oppose the resin film , a gas blowoff face configured to blow off gas; - a gas supply port which is provided to one end of the casing and which is configured to supply gas along the longitudinal direction (x) of the nozzle ; and - one or more pressure equalizing chambers which are configured to communicate with the gas supply port and the gas blowoff face , wherein: - one pressure equalizing chamber of the one or more pressure equalizing chambers includes a partition plate constituting a face on a side of the gas blowoff face , characterized in that : - the partition plate includes a plurality of tubular bodies arranged on the partition plate along the longitudinal direction (x) of the nozzle such that an axial direction (z) of each of the tubular bodies is orthogonal to the longitudinal direction (x) of the nozzle , each of the tubular bodies having orifices on both ends, - in each of the tubular bodies , an angle θ that a wall surface on a side closer to the gas supply port , out of wall surfaces that rise from the partition plate , forms with the partition plate is 75° to 95° as an interior angle in a sectional shape of each of the tubular bodies , and - a gas circulation hole is provided on a face of each of the tubular bodies that comes into contact with the partition plate , the gas circulation hole passing through the face and the partition plate . - a casing provided and configured such that, - a longitudinal direction (x) of the gas blowoff nozzle is configured to extend in the width direction (x) of the resin film , and, - on a lateral face thereof configured to oppose the resin film , a gas blowoff face configured to blow off gas; - a gas supply port which is provided to one end of the casing and which is configured to supply gas along the longitudinal direction (x) of the nozzle ; and - one or more pressure equalizing chambers which are configured to communicate with the gas supply port and the gas blowoff face , - one pressure equalizing chamber of the one or more pressure equalizing chambers includes a partition plate constituting a face on a side of the gas blowoff face , - in each of the tubular bodies , an angle θ that a wall surface on a side closer to the gas supply port , out of wall surfaces that rise from the partition plate , forms with the partition plate is 75° to 95° as an interior angle in a sectional shape of each of the tubular bodies , and - a gas circulation hole is provided on a face of each of the tubular bodies that comes into contact with the partition plate , the gas circulation hole passing through the face and the partition plate .
Method for producing blister packs for medicinal products , in particular tablets, capsules or coated pills, comprising the following steps: providing a bottom film and forming a plurality of blister pockets in the bottom film , wherein each blister pocket has an at least two-level shape, such that it has a first recess , which defines a first level of the blister pocket , and a second recess , which is formed in a subsection of a surface area spanned by the first recess and lies deeper than the first recess ; filling the second recesses of the blister pockets with the medicinal products ; providing strips of active material and placing a strip of active material into the first recess of each blister pocket above the medicinal product , wherein the strip of active material rests on at least one support surface of the first recess , which support surface is arranged next to the second recess ; providing a cover film , and sealing the cover film to webs of the bottom film , which are arranged around the blister pockets , and simultaneously to the strips of active material, and thereby forming a sealed blister web; and stamping out individual blister packs from the blister web. providing a bottom film and forming a plurality of blister pockets in the bottom film , wherein each blister pocket has an at least two-level shape, such that it has a first recess , which defines a first level of the blister pocket , and a second recess , which is formed in a subsection of a surface area spanned by the first recess and lies deeper than the first recess ; filling the second recesses of the blister pockets with the medicinal products ; providing strips of active material and placing a strip of active material into the first recess of each blister pocket above the medicinal product , wherein the strip of active material rests on at least one support surface of the first recess , which support surface is arranged next to the second recess ; providing a cover film , and sealing the cover film to webs of the bottom film , which are arranged around the blister pockets , and simultaneously to the strips of active material, and thereby forming a sealed blister web; and stamping out individual blister packs from the blister web.
A handle assembly for a prosthesis delivery device comprising: a stationary main handle having a proximal end and a distal end and an outer surface extending therebetween; a first handle extending proximally from the main handle and rotationally moveable relative to the main handle , the first handle having a proximal end and a distal end and defining a first handle interior; a second handle extending distally from the main handle and rotationally moveable relative to the main handle , the second handle having a proximal end and a distal end and defining a second handle interior; wherein the first handle comprises a threaded internal surface extending between the proximal and distal ends; and wherein the second handle comprises a threaded internal surface extending between the proximal and distal ends. a stationary main handle having a proximal end and a distal end and an outer surface extending therebetween; a first handle extending proximally from the main handle and rotationally moveable relative to the main handle , the first handle having a proximal end and a distal end and defining a first handle interior; a second handle extending distally from the main handle and rotationally moveable relative to the main handle , the second handle having a proximal end and a distal end and defining a second handle interior; wherein the first handle comprises a threaded internal surface extending between the proximal and distal ends; and wherein the second handle comprises a threaded internal surface extending between the proximal and distal ends.
Oven door for closing an oven cavity comprising a door glass being at least partially transparent for enabling a user to look into the oven cavity and a door handle for opening the door, wherein the door handle comprises a projection unit being adapted to project light onto an projection area, characterised in that the projection unit is adapted to project light onto an projection area of the door glass in order to provide a graphical display on the door glass , wherein the door glass is adapted to emit or reflect light towards the space in front of the oven door based on the light provided by the projection unit in order to provide information to a user in front of the oven door , and wherein the projection unit is a Liquid Crystal on Silicon (LCoS) projection unit, a Digital Light Processing (DLP) projection unit or a micro-electromechanical system (MEMS) projection unit, and wherein the oven door comprises a user control interface at least partially located in the area of the graphical display , said user control interface being adapted to detect user interactions for controlling the oven .
A tyre comprising a tread portion comprising four zigzag circumferential grooves each extending in a zigzag manner in a tyre circumferential direction, lateral grooves each extending so as to connect between top portions (Pa, Pb) of the zigzag circumferential grooves adjacent to each other, and hexagonal blocks divided by the zigzag circumferential grooves and the lateral grooves , wherein the four zigzag circumferential grooves include a pair of center circumferential grooves and a pair of shoulder circumferential grooves each having a groove width (ws) larger than that (Wc) of each of the center circumferential grooves , a groove width (wc) of each of the center circumferential grooves is not more than 4.0 mm, a depth (D1) of each of the lateral grooves is smaller than a depth (D0) of each of the zigzag circumferential grooves , and a groove bottom of each of the lateral grooves is provided with a first sipe extending along a respective one of the lateral grooves , characterized in that the first sipe extends in a zigzag manner.
A tetravalent and homodimeric bispecific antibody molecule comprising in each monomer: (i) an N-terminal Fab fragment comprising a variable region comprising a heavy chain variable domain and a light chain variable domain, wherein said variable region comprises a first binding site capable of binding to an antigen; (ii) a C-terminal scFv fragment binding CD3 comprising a heavy chain variable region and a light chain variable region of humanized UCHT1, and wherein (i) and (ii) are connected by a CH2 and CH3 domain. (i) an N-terminal Fab fragment comprising a variable region comprising a heavy chain variable domain and a light chain variable domain, wherein said variable region comprises a first binding site capable of binding to an antigen; (ii) a C-terminal scFv fragment binding CD3 comprising a heavy chain variable region and a light chain variable region of humanized UCHT1, and wherein (i) and (ii) are connected by a CH2 and CH3 domain.
A single core submarine cable comprising: a cable core ; an inner protecting layer positioned outside of the cable core ; and an armor layer positioned outside of the inner protecting layer , wherein the single core submarine cable comprises a first section and a second section, characterized in that , the armor layer comprises first metal wires and second metal wires with a constant sum of number in the first section and the second section of the single core submarine cable , the number of the first metal wires and the second metal wires is different between the first section and the second section, the first metal wires and the second metal wires on the first and second sections are continuously arranged around the circumference of the inner protecting layer , wherein the first metal wires are copper wires, aluminium wires, or a combination thereof and the second wires are steel wires. a cable core ; an inner protecting layer positioned outside of the cable core ; and an armor layer positioned outside of the inner protecting layer , wherein the single core submarine cable comprises a first section and a second section, characterized in that , the armor layer comprises first metal wires and second metal wires with a constant sum of number in the first section and the second section of the single core submarine cable , the number of the first metal wires and the second metal wires is different between the first section and the second section, the first metal wires and the second metal wires on the first and second sections are continuously arranged around the circumference of the inner protecting layer , wherein the first metal wires are copper wires, aluminium wires, or a combination thereof and the second wires are steel wires.
A coating film , suitable for a sliding member, coated on a substrate surface, wherein a hard carbon layer comprising a non-columnar hard carbon layer on top of the substrate and a columnar hard carbon layer on top of the non-columnar hard carbon layer , wherein the columnar hard carbon layer (la) is formed to extend continuously in a columnar shape perpendicular to the substrate and has a structure in which the crystallographic C axis is perpendicular to the substrate when observed in a cross-sectional bright-field TEM image, and the ID/IG ratio is 1-6 when the columnar hard carbon layer is measured using Raman spectroscopy, said ratio being the ratio of the Raman spectrum D band peak area intensity and G band peak area intensity, wherein the nano indentation hardness of the columnar hard carbon layer is 10 GPa to 35 GPa, the columnar hard carbon layer consists of amorphous hard carbon, or consists of amorphous hard carbon and graphite crystals, and the nano indentation hardness is measured using a Nanoindenter ENT1100a manufactured by Elionix Company under a condition of a load of 300 mgf, the load partition number of 500, and a load loading time of 1 s. a hard carbon layer comprising a non-columnar hard carbon layer on top of the substrate and a columnar hard carbon layer on top of the non-columnar hard carbon layer , wherein the columnar hard carbon layer (la) is formed to extend continuously in a columnar shape perpendicular to the substrate and has a structure in which the crystallographic C axis is perpendicular to the substrate when observed in a cross-sectional bright-field TEM image, and the ID/IG ratio is 1-6 when the columnar hard carbon layer is measured using Raman spectroscopy, said ratio being the ratio of the Raman spectrum D band peak area intensity and G band peak area intensity, wherein the nano indentation hardness of the columnar hard carbon layer is 10 GPa to 35 GPa, the columnar hard carbon layer consists of amorphous hard carbon, or consists of amorphous hard carbon and graphite crystals, and the nano indentation hardness is measured using a Nanoindenter ENT1100a manufactured by Elionix Company under a condition of a load of 300 mgf, the load partition number of 500, and a load loading time of 1 s.
A resource configuration method, comprising: obtaining (S301), by a first terminal, resource indication information, wherein the resource indication information is used to indicate a symbol or a quantity of symbols occupied by sidelink control information in one slot or mini-slot; determining (S302), by the first terminal based on the resource indication information, the symbol for sending the sidelink control information, wherein the sidelink control information is used to indicate to send scheduling information of sidelink data information; sending (S303), by the first terminal, the sidelink control information on the determined symbol for sending the sidelink control information; and sending (S304), by the first terminal, the sidelink data information to a second terminal based on the scheduling information; wherein when the quantity of symbols occupied by the sidelink control information in the one slot or mini-slot is equal to a quantity of available symbols in the one slot or mini-slot, frequency division multiplexing is performed between a resource of the sidelink control information and a resource of the sidelink data information; and the quantity of available symbols in the one slot or mini-slot is a quantity of symbols used to send the sidelink control information and the sidelink data information in the one slot or mini-slot; characterized by the sidelink control information being transmitted at a higher power relative to the sidelink data information. obtaining (S301), by a first terminal, resource indication information, wherein the resource indication information is used to indicate a symbol or a quantity of symbols occupied by sidelink control information in one slot or mini-slot; determining (S302), by the first terminal based on the resource indication information, the symbol for sending the sidelink control information, wherein the sidelink control information is used to indicate to send scheduling information of sidelink data information; sending (S303), by the first terminal, the sidelink control information on the determined symbol for sending the sidelink control information; and sending (S304), by the first terminal, the sidelink data information to a second terminal based on the scheduling information; wherein when the quantity of symbols occupied by the sidelink control information in the one slot or mini-slot is equal to a quantity of available symbols in the one slot or mini-slot, frequency division multiplexing is performed between a resource of the sidelink control information and a resource of the sidelink data information; and the quantity of available symbols in the one slot or mini-slot is a quantity of symbols used to send the sidelink control information and the sidelink data information in the one slot or mini-slot; characterized by the sidelink control information being transmitted at a higher power relative to the sidelink data information.
A method for scheduling tasks, the method comprising: analyzing , by a task management device of a distributed system, network resources needed for a task to perform cross-cluster reading and writing; and scheduling , by the task management device, the task according to the analysis of the network resources; wherein analyzing network resources comprises: obtaining an amount of input data and an amount of output data for a task based on a history record of the task, and calculating an input-output ratio representing a proportion of the network resources needed for reading and writing for the task, the input-output ratio equal to a ratio of the amount of input data to the amount of output data; and wherein scheduling the task comprises: if network resources needed for reading are more than network resources needed for writing, scheduling the task to a target cluster where read dependent data is, and if network resources needed for reading are not more than network resources needed for writing, scheduling the task to a target cluster where written result data is to be located. analyzing , by a task management device of a distributed system, network resources needed for a task to perform cross-cluster reading and writing; and scheduling , by the task management device, the task according to the analysis of the network resources; wherein analyzing network resources comprises: obtaining an amount of input data and an amount of output data for a task based on a history record of the task, and calculating an input-output ratio representing a proportion of the network resources needed for reading and writing for the task, the input-output ratio equal to a ratio of the amount of input data to the amount of output data; obtaining an amount of input data and an amount of output data for a task based on a history record of the task, and calculating an input-output ratio representing a proportion of the network resources needed for reading and writing for the task, the input-output ratio equal to a ratio of the amount of input data to the amount of output data; and wherein scheduling the task comprises: if network resources needed for reading are more than network resources needed for writing, scheduling the task to a target cluster where read dependent data is, and if network resources needed for reading are not more than network resources needed for writing, scheduling the task to a target cluster where written result data is to be located. if network resources needed for reading are more than network resources needed for writing, scheduling the task to a target cluster where read dependent data is, and if network resources needed for reading are not more than network resources needed for writing, scheduling the task to a target cluster where written result data is to be located.