mhurhangee/patent-ind-claim-en huggingface dataset:
A display device , comprising: a display ; a memory ; and a processor configured to: run at least one application on the memory , allocate a front window buffer and a back window buffer to each of the at least one application on the memory , wherein the front window buffer is used for storing a first image currently displayed on the display and wherein the back window buffer is used for storing a second image to be displayed on the display after the first image; in a state where the at least one application is running is maintained: collect the back window buffer allocated to an application based on a state where at least a portion of the first image by the application is not displayed on the display, and collect the front window buffer and the back window buffer which are allocated to an application based on a state where all of the first image by the application is not displayed on the display. a display ; a memory ; and a processor configured to: run at least one application on the memory , allocate a front window buffer and a back window buffer to each of the at least one application on the memory , wherein the front window buffer is used for storing a first image currently displayed on the display and wherein the back window buffer is used for storing a second image to be displayed on the display after the first image; in a state where the at least one application is running is maintained: collect the back window buffer allocated to an application based on a state where at least a portion of the first image by the application is not displayed on the display, and collect the front window buffer and the back window buffer which are allocated to an application based on a state where all of the first image by the application is not displayed on the display. run at least one application on the memory , allocate a front window buffer and a back window buffer to each of the at least one application on the memory , wherein the front window buffer is used for storing a first image currently displayed on the display and wherein the back window buffer is used for storing a second image to be displayed on the display after the first image; in a state where the at least one application is running is maintained: collect the back window buffer allocated to an application based on a state where at least a portion of the first image by the application is not displayed on the display, and collect the front window buffer and the back window buffer which are allocated to an application based on a state where all of the first image by the application is not displayed on the display. collect the back window buffer allocated to an application based on a state where at least a portion of the first image by the application is not displayed on the display, and collect the front window buffer and the back window buffer which are allocated to an application based on a state where all of the first image by the application is not displayed on the display.
Pill dispenser for dispensing medication, comprising a first packaging formed by a juxtaposition of divisible elements each having a plurality of recesses (1 to 7) closed by a lid, and a second packaging formed by a plurality of recesses (21 to 27; 31 to 37) closed by a lid, wherein: • said first packaging has means for connecting to said second packaging , characterized in that: • said connection means (17, 18; 28, 29) are configured to allow bottom-to-bottom positioning or bottom-to-lid positioning between said first packaging and said second packaging , and in that said connection means consist of hinged tabs (17, 18; 28, 29) having a width corresponding to the height of said recesses (21 to 27; 31 to 37), forming an extension to one of the edges of each of said packagings and having complementary fastening means, said tabs being stackable in the plane of the lids of the packagings for a lid-to-lid connection, and stackable in a plane perpendicular to said lids for a lid-to-bottom connection. • said first packaging has means for connecting to said second packaging , characterized in that: • said connection means (17, 18; 28, 29) are configured to allow bottom-to-bottom positioning or bottom-to-lid positioning between said first packaging and said second packaging , and
A battery connection device configured to be connected to a battery of a vehicle, the battery connection device comprising: - a top member , - a bottom member having a side wall and a bottom wall connected to the side wall , the side wall being connected to the top member such that the top member and the bottom member form a box-like enclosure , the bottom wall further including a through-hole with a circumferential face , - an adapter member arranged inside the box-like enclosure and extending at least partially through the through-hole for connection with the battery , wherein a dimension of the adapter member is smaller than a dimension of the through-hole such that a gap is formed between an outer face of the adapter member facing the circumferential face and the circumferential face , characterized in that the battery connection device further comprises: - a flexible connection member connected to the adapter member and to the bottom member and closing the gap between the outer face and the circumferential face , wherein the flexible connection member includes an electromagnetic shielding function for shielding electromagnetic radiation and a sealing function for sealing the gap against dust and/or moisture, wherein the flexible connection member further includes: - a sealing member made of rubber material for providing the sealing function and - a shielding member made of conductive material for providing the electromagnetic shielding function, wherein the sealing member and the shielding member are both connected to the bottom wall of the bottom member and to a bottom side of the adapter member . - a top member , - a bottom member having a side wall and a bottom wall connected to the side wall , the side wall being connected to the top member such that the top member and the bottom member form a box-like enclosure , the bottom wall further including a through-hole with a circumferential face , - an adapter member arranged inside the box-like enclosure and extending at least partially through the through-hole for connection with the battery , wherein a dimension of the adapter member is smaller than a dimension of the through-hole such that a gap is formed between an outer face of the adapter member facing the circumferential face and the circumferential face , characterized in that the battery connection device further comprises: - a flexible connection member connected to the adapter member and to the bottom member and closing the gap between the outer face and the circumferential face , wherein the flexible connection member includes an electromagnetic shielding function for shielding electromagnetic radiation and a sealing function for sealing the gap against dust and/or moisture, wherein the flexible connection member further includes: - a sealing member made of rubber material for providing the sealing function and - a shielding member made of conductive material for providing the electromagnetic shielding function,
A tubing punch and setting tool (TPST, 10) for running and setting a reference tool (46; 140) in a tubing string in a well bore and for punching at least one hole in the tubing string on a single trip in the well bore , the TPST comprising: a substantially cylindrical body having a first end adapted for connection to conveyancing means; a setting tool (42; 44) with means to connect to the reference tool (46; 140) at a second end; a punch tool comprising a substantially cylindrical body including at least two punch assemblies arranged perpendicularly to a central axis of the body, a hydraulic fluid chamber including a boost piston to compress the fluid and a fluid pathway, from the chamber , to deliver the compressed fluid to the punch assemblies and thereby operate the punch assemblies ; at least one power delivery module ; and, an actuation means located between the ends; wherein the actuation means triggers the power delivery module to power the setting tool (42; 44) to set the reference tool (46; 140) against the tubing and triggers the power delivery module to power the punch tool to punch at least one hole in the tubing.
A process for the synthesis of a lactam, the process comprising the steps of: (a) an Aldol condensation between an acetone initiator and glyoxalic acid; (b) treating the product(s) of step (a) with an organic acid to effect dehydration; (c) reacting the product of step (b) with ammonia or a primary amine, or salt thereof, to afford a lactam. (a) an Aldol condensation between an acetone initiator and glyoxalic acid; (b) treating the product(s) of step (a) with an organic acid to effect dehydration; (c) reacting the product of step (b) with ammonia or a primary amine, or salt thereof, to afford a lactam.
A composition comprising at least these components: i) at least one sort of semiconducting nanoparticle; ii) at least one antioxidant; iii) a polymerizable component; and iii) a liquid organic compound, preferably, the composition comprises in the range from 50 to 400 parts of the polymerizable component based on 100 parts of said semiconducting nanoparticles in the composition, wherein the composition further comprises an organic additive, which is composed of a divalent metal ion and at least one functionalized hydrocarbon group. i) at least one sort of semiconducting nanoparticle; ii) at least one antioxidant; iii) a polymerizable component; and iii) a liquid organic compound, preferably, the composition comprises in the range from 50 to 400 parts of the polymerizable component based on 100 parts of said semiconducting nanoparticles in the composition,
A method for determining information related to an authenticity of a wireless message in a wireless group communication among vehicles of a group of vehicles participating in platooning, the method comprising Receiving the wireless message via an antenna module; Detecting a signal pilot within the wireless message, wherein the signal pilot is detected based on a spatial filtering of the wireless message; Determining information related to a direction of arrival for the wireless message based on the signal pilot and based on the spatial filtering of the wireless message; Determining the information related to the authenticity of the wireless message based on the detected signal pilot, wherein the information related to the authenticity of the wireless message indicates, whether the wireless message was received from a trusted source, wherein the information related to the authenticity of the wireless message is determined based on the information related to the direction of arrival for the wireless message, and wherein the direction of arrival is used to distinguish between authentic and inauthentic wireless messages. Receiving the wireless message via an antenna module; Detecting a signal pilot within the wireless message, wherein the signal pilot is detected based on a spatial filtering of the wireless message; Determining information related to a direction of arrival for the wireless message based on the signal pilot and based on the spatial filtering of the wireless message; Determining the information related to the authenticity of the wireless message based on the detected signal pilot, wherein the information related to the authenticity of the wireless message indicates, whether the wireless message was received from a trusted source, wherein the information related to the authenticity of the wireless message is determined based on the information related to the direction of arrival for the wireless message, and wherein the direction of arrival is used to distinguish between authentic and inauthentic wireless messages.
A honeycomb comprising cells having edges forming a face of the honeycomb, the face defined by a plurality of points and having an area of curvature wherein at least two of the points are located in different tangential planes, wherein less than 25 percent of the honeycomb cells in the area of curvature have a re-entrant angle of greater than 180°, the honeycomb obtainable by the steps of: a) bonding a plurality of sheets along parallel lines of adhesive, the sheets comprising: i) 5 to 50 parts by weight thermoplastic material having a melting point of from 120° to 350° C, and ii) 50 to 95 parts by weight high modulus fiber having a modulus of 600 grams per denier (550 grams per dtex) or greater, based on the total amount of thermoplastic material and high modulus fiber in the walls; b) pulling the bonded sheets apart in directions perpendicular to the plane of the sheets to form a honeycomb having cells; c) heating the honeycomb to soften the thermoplastic material; d) bending, molding, or forming the honeycomb in a mold or over a form having an area of curvature; and e) cooling the honeycomb to retain the shape of the area of curvature of the mold or form. a) bonding a plurality of sheets along parallel lines of adhesive, the sheets comprising: i) 5 to 50 parts by weight thermoplastic material having a melting point of from 120° to 350° C, and ii) 50 to 95 parts by weight high modulus fiber having a modulus of 600 grams per denier (550 grams per dtex) or greater, based on the total amount of thermoplastic material and high modulus fiber in the walls; i) 5 to 50 parts by weight thermoplastic material having a melting point of from 120° to 350° C, and ii) 50 to 95 parts by weight high modulus fiber having a modulus of 600 grams per denier (550 grams per dtex) or greater, based on the total amount of thermoplastic material and high modulus fiber in the walls; b) pulling the bonded sheets apart in directions perpendicular to the plane of the sheets to form a honeycomb having cells; c) heating the honeycomb to soften the thermoplastic material; d) bending, molding, or forming the honeycomb in a mold or over a form having an area of curvature; and e) cooling the honeycomb to retain the shape of the area of curvature of the mold or form.
A non-contact communication medium, comprising: a voltage generation unit that includes an antenna coil for transmission/reception, and is configured to receive a signal magnetic field from an external device to generate a voltage; a memory unit configured to store a circuit parameter set in the voltage generation unit , and predetermined management information; a clock signal generation unit configured to selectively generate clock signals having two or more different frequencies; and a control unit configured to select a frequency of a clock signal to be supplied to the memory unit from the clock signal generation unit ; wherein the non-contact communication medium is configured to transmit the predetermined management information to the external device ; characterized in that the control unit is configured to select, when reading the circuit parameter, a first clock signal of a first frequency and select, when reading the predetermined management information, a second clock signal of a second frequency higher than the first frequency; wherein the voltage generation unit is configured to increase an electric power drawn from the antenna coil based on the circuit parameter. a voltage generation unit that includes an antenna coil for transmission/reception, and is configured to receive a signal magnetic field from an external device to generate a voltage; a memory unit configured to store a circuit parameter set in the voltage generation unit , and predetermined management information; a clock signal generation unit configured to selectively generate clock signals having two or more different frequencies; and a control unit configured to select a frequency of a clock signal to be supplied to the memory unit from the clock signal generation unit ; wherein the non-contact communication medium is configured to transmit the predetermined management information to the external device ; characterized in that the control unit is configured to select, when reading the circuit parameter, a first clock signal of a first frequency and select, when reading the predetermined management information, a second clock signal of a second frequency higher than the first frequency; wherein the voltage generation unit is configured to increase an electric power drawn from the antenna coil based on the circuit parameter.
A method for fabricating a waveguide , the method comprising: (i) fabricating a first master grating tool comprising a first tool substrate having a surface with an area corresponding at least to the area of a surface of the waveguide and having a first grating profile formed over substantially all of the surface of the first tool substrate; (ii) fabricating a second master grating tool comprising a second tool substrate having a surface with an area corresponding at least to the area of the surface of the waveguide and having a second grating profile formed over substantially all of the surface of the second tool substrate; (iii) using the first master grating tool to replicate the first grating profile over substantially all of a surface of a first waveguide substrate; (iv) using the second master grating tool to replicate the second grating profile over substantially all of a surface of a second waveguide substrate; (v) applying a first dielectric layer over a selected area of the first grating profile replicated on the surface of the first waveguide substrate; (vi) applying a second dielectric layer over a selected area of the second grating profile replicated on the surface of the second waveguide substrate; and (vii) applying a layer of laminating material to at least one of the surfaces of the first and second waveguide substrates and bringing the surfaces of the first and the second waveguide substrates together thereby to join the first and second waveguide substrates together by an intermediate lamination layer . (i) fabricating a first master grating tool comprising a first tool substrate having a surface with an area corresponding at least to the area of a surface of the waveguide and having a first grating profile formed over substantially all of the surface of the first tool substrate; (ii) fabricating a second master grating tool comprising a second tool substrate having a surface with an area corresponding at least to the area of the surface of the waveguide and having a second grating profile formed over substantially all of the surface of the second tool substrate; (iii) using the first master grating tool to replicate the first grating profile over substantially all of a surface of a first waveguide substrate; (iv) using the second master grating tool to replicate the second grating profile over substantially all of a surface of a second waveguide substrate; (v) applying a first dielectric layer over a selected area of the first grating profile replicated on the surface of the first waveguide substrate; (vi) applying a second dielectric layer over a selected area of the second grating profile replicated on the surface of the second waveguide substrate; and (vii) applying a layer of laminating material to at least one of the surfaces of the first and second waveguide substrates and bringing the surfaces of the first and the second waveguide substrates together thereby to join the first and second waveguide substrates together by an intermediate lamination layer .
Lidar sensor, in particular for motor vehicles, having a light source , a movable deflection mirror for producing a scanning beam that scans a monitoring space by deflecting a light beam emitted by the light source , and having an optical receiver (42; 42a; 42b; 42e) for detecting light that was reflected at an object , on which the scanning beam impinged, in the monitoring space , wherein the light source and the deflection mirror are set up to scan a field (20; 20a, 20c; 20f) of micro-optical elements (22; 22a; 22c) using the deflected light beam , with each of said micro-optical elements on which the light beam impinges expanding said light beam to form a divergent beam , and wherein, at a distance from the field (20; 20a, 20c; 20f) of micro-optical elements, a light-bundling element is arranged that reshapes the divergent beam into a beam forming the scanning beam having a beam diameter that is greater than that of the deflected beam .
An interactive testing system for analysing biological samples, said system comprising one or more remote measurement systems for measuring a biological sample, and a central server connected with the remote measurement system(s) over a network, said remote measurement system(s) comprising a display unit and a spectral measurement instrument based on infrared spectroscopy, near infrared spectroscopy or Fourier transform infrared spectroscopy, said remote measurement system(s) configured to - generating spectral measurement data from the measurement of a biological sample by means of the corresponding spectral measurement instrument, and - forwarding said spectral measurement data directly to the central server through the network, said central server configured to - receiving said spectral measurement data sent from said remote measurement system, - processing said spectral measurement data by means of chemometric methods thereby calculating measurement values corresponding to the concentration of one or more predefined chemical components in said biological sample, - storing said measurement values, - generating a health profile from said measurement values, and - forwarding said health profile from the central server to the display unit in said remote measurement system. - generating spectral measurement data from the measurement of a biological sample by means of the corresponding spectral measurement instrument, and - forwarding said spectral measurement data directly to the central server through the network, - receiving said spectral measurement data sent from said remote measurement system, - processing said spectral measurement data by means of chemometric methods thereby calculating measurement values corresponding to the concentration of one or more predefined chemical components in said biological sample, - storing said measurement values, - generating a health profile from said measurement values, and - forwarding said health profile from the central server to the display unit in said remote measurement system.
A surface-treated copper foil comprising: an electrolytic copper foil; a roughened layer covering at least one surface side of the electrolytic copper foil; and a rust preventive layer further covering the roughened layer, characterised in that the rust preventive layer is at least one surface of the surface-treated copper foil; the rust preventive layer comprises at least a nickel layer; and a thickness of the nickel layer is 0.8 to 4.4 g/m 2 in terms of mass per unit area of nickel; and a noncontact roughness Spd of the rust preventive layer, when measured according to ISO 25178, is 1.4 to 2.6 peaks/μm 2 and a surface roughness RzJIS of the rust preventive layer, when measured according to JIS B0601:1994, is 1.0 to 2.5 μm. an electrolytic copper foil; a roughened layer covering at least one surface side of the electrolytic copper foil; and a rust preventive layer further covering the roughened layer, characterised in that the rust preventive layer is at least one surface of the surface-treated copper foil; the rust preventive layer comprises at least a nickel layer; and a thickness of the nickel layer is 0.8 to 4.4 g/m 2 in terms of mass per unit area of nickel; and a noncontact roughness Spd of the rust preventive layer, when measured according to ISO 25178, is 1.4 to 2.6 peaks/μm 2 and a surface roughness RzJIS of the rust preventive layer, when measured according to JIS B0601:1994, is 1.0 to 2.5 μm.