mhurhangee/patent-ind-claim-en huggingface dataset:
A sensor assembly for detecting the movement and/or the presence of a person, comprising: - a housing having an opening for an electromagnetic radiation of a first type and an electromagnetic radiation of a second type, - a sensor , arranged in the housing , for detecting the electromagnetic radiation of the first type, - a shading element that is arranged on the housing so as to partially shade the opening , wherein the shading element for the electromagnetic radiation of the first type has a transmittance that is less than 30%, - a transmitting and/or receiving element , arranged in the housing in addition to the sensor , for transmitting and/or receiving the electromagnetic radiation of the second type, wherein the shading element for the electromagnetic radiation of the second type has a transmittance that is greater than 60%. characterized in that the shading element is designed in such a way that it can be attached to the housing in different positions such that, in each of the positions, it shades a respective different partial region of the sensor . - a housing having an opening for an electromagnetic radiation of a first type and an electromagnetic radiation of a second type, - a sensor , arranged in the housing , for detecting the electromagnetic radiation of the first type, - a shading element that is arranged on the housing so as to partially shade the opening , wherein the shading element for the electromagnetic radiation of the first type has a transmittance that is less than 30%, - a transmitting and/or receiving element , arranged in the housing in addition to the sensor , for transmitting and/or receiving the electromagnetic radiation of the second type, wherein the shading element for the electromagnetic radiation of the second type has a transmittance that is greater than 60%.
A wireless communication method, the method comprising: sending by a first device over a first channel of a wireless network a poll packet for polling a second device in the wireless network as part of a polling sequence that polls the second device and at least one further device , wherein the poll packet comprises an address of the second device ; receiving and at least partially decoding the poll packet by the second device ; as part of the polling sequence, sending by the first device to a further device of the at least one further device a previous poll packet before said sending of the poll packet, wherein the previous poll packet comprises the address of the further device ; receiving and at least partially decoding by the second device the previous poll packet before the receiving and at least partially decoding of the poll packet; determining by the second device that said poll packet will be addressed to the second device based on the polling sequence and the address of the further device and sending by the second device over a second channel of the wireless network, in response to the poll packet, a response packet, wherein: the sending by the second device of at least part of the response packet is performed after receiving at least part of the preamble of the poll packet by the second device and before decoding the address from the poll packet by the second device . sending by a first device over a first channel of a wireless network a poll packet for polling a second device in the wireless network as part of a polling sequence that polls the second device and at least one further device , wherein the poll packet comprises an address of the second device ; receiving and at least partially decoding the poll packet by the second device ; as part of the polling sequence, sending by the first device to a further device of the at least one further device a previous poll packet before said sending of the poll packet, wherein the previous poll packet comprises the address of the further device ; receiving and at least partially decoding by the second device the previous poll packet before the receiving and at least partially decoding of the poll packet; determining by the second device that said poll packet will be addressed to the second device based on the polling sequence and the address of the further device and sending by the second device over a second channel of the wireless network, in response to the poll packet, a response packet, wherein: the sending by the second device of at least part of the response packet is performed after receiving at least part of the preamble of the poll packet by the second device and before decoding the address from the poll packet by the second device .
A device for ablation processing of ophthalmic implantation material formed by aqueous base material, comprising: a laser source configured to generate a pulsed laser beam (L) having a processing wavelength (λ) in the ultraviolet waveband, the processing wavelength (λ) being in a wavelength range of 200nm to 250nm and causing a higher absorbance (A) of the laser beam (L) in the base material of the implantation material than the absorbance (A) of the laser beam (L) in the water of the implantation material , a projection optics configured to radiate the pulsed laser beam (L) onto a surface of the implantation material , and in a processing area with laser pulses (P) of the laser beam (L) which laser pulses (P) have a photoablation-effective combination of pulse duration (D) and intensity (I), the intensity (I) of the laser pulses (P) being in an intensity range of 10 6 W/cm 2 to 10 11 W/cm 2 , to trigger interaction with the implantation material for ablation of the implantation material , and a scanner device configured to perform movement of the processing area for ablation processing according to a processing pattern. a laser source configured to generate a pulsed laser beam (L) having a processing wavelength (λ) in the ultraviolet waveband, the processing wavelength (λ) being in a wavelength range of 200nm to 250nm and causing a higher absorbance (A) of the laser beam (L) in the base material of the implantation material than the absorbance (A) of the laser beam (L) in the water of the implantation material , a projection optics configured to radiate the pulsed laser beam (L) onto a surface of the implantation material , and in a processing area with laser pulses (P) of the laser beam (L) which laser pulses (P) have a photoablation-effective combination of pulse duration (D) and intensity (I), the intensity (I) of the laser pulses (P) being in an intensity range of 10 6 W/cm 2 to 10 11 W/cm 2 , to trigger interaction with the implantation material for ablation of the implantation material , and a scanner device configured to perform movement of the processing area for ablation processing according to a processing pattern.
A measurement arrangement comprising: - two antenna arrangements for radiating microwaves, each comprising: - a dielectric waveguide body ; and - a carrier body ; wherein the dielectric waveguide body an electrically conductive surface at least along a circumferential sheath surface, wherein the dielectric waveguide body has an electrically non-conductive radiating surface , wherein the dielectric waveguide body has a coupler receptacle ; wherein the carrier body surrounds the dielectric waveguide body at least along the lateral surface, wherein the dielectric waveguide body is fixed in the carrier body , wherein the carrier body has a radiating aperture, the radiating surface being aligned with the radiating aperture; - a measuring tube with two opposite antenna openings on each of which one of the antenna arrangements is mounted, - a measuring and operating circuit which is connected to each antenna arrangement by means of a signal line, characterized in that the carrier body comprises a material having a modulus of elasticity of not less than 50 GPa. - two antenna arrangements for radiating microwaves, each comprising: - a dielectric waveguide body ; and - a carrier body ; wherein the dielectric waveguide body an electrically conductive surface at least along a circumferential sheath surface, wherein the dielectric waveguide body has an electrically non-conductive radiating surface , wherein the dielectric waveguide body has a coupler receptacle ; wherein the carrier body surrounds the dielectric waveguide body at least along the lateral surface, wherein the dielectric waveguide body is fixed in the carrier body , wherein the carrier body has a radiating aperture, the radiating surface being aligned with the radiating aperture; - a dielectric waveguide body ; and - a carrier body ; wherein the dielectric waveguide body an electrically conductive surface at least along a circumferential sheath surface, wherein the dielectric waveguide body has an electrically non-conductive radiating surface , wherein the dielectric waveguide body has a coupler receptacle ; wherein the carrier body surrounds the dielectric waveguide body at least along the lateral surface, wherein the dielectric waveguide body is fixed in the carrier body , wherein the carrier body has a radiating aperture, the radiating surface being aligned with the radiating aperture; wherein the dielectric waveguide body an electrically conductive surface at least along a circumferential sheath surface, wherein the dielectric waveguide body has an electrically non-conductive radiating surface , wherein the dielectric waveguide body has a coupler receptacle ; wherein the carrier body surrounds the dielectric waveguide body at least along the lateral surface, wherein the dielectric waveguide body is fixed in the carrier body , wherein the carrier body has a radiating aperture, the radiating surface being aligned with the radiating aperture; - a measuring tube with two opposite antenna openings on each of which one of the antenna arrangements is mounted, - a measuring and operating circuit which is connected to each antenna arrangement by means of a signal line,
A system for counteracting cabin vibrations in a cabin of a vehicle in motion, the system comprising: - a sensor for measuring a current lateral velocity of the cabin when the cabin is vibrating in the lateral direction of the vehicle, - a control unit configured to receive an input signal from the sensor, said input signal representing a value of the measured lateral velocity of the cabin, characterized in that the control unit is configured to: compare the value of the measured lateral velocity with a reference value , and transmit, based on the comparison, command signals for applying a torque to at least one of the wheels of the vehicle. - a sensor for measuring a current lateral velocity of the cabin when the cabin is vibrating in the lateral direction of the vehicle, - a control unit configured to receive an input signal from the sensor, said input signal representing a value of the measured lateral velocity of the cabin, compare the value of the measured lateral velocity with a reference value , and transmit, based on the comparison, command signals for applying a torque to at least one of the wheels of the vehicle.
A compound of Formula I or a pharmaceutically acceptable salt and/or solvate thereof: wherein: R 1 is selected from: wherein represents the point of attachment of the group to the remaining portion of the compounds of Formula I; R 2 and R 3 are independently selected from H, fluoro, and C 1-4 alkyl; R 4 is OCH 3 ; R 5 is A is selected from C 0-1 alkylene, O, NH and NCH 3 ; and X 1 , X 2 and X 3 are the same or different and are selected from H and F, provided that two of X 1 , X 2 and X 3 are F and the other one of X 1 , X 2 and X 3 is H; and one or more of the atoms in the compounds of formula I are optionally replaced with a radioactive isotope thereof. R 1 is selected from: wherein represents the point of attachment of the group to the remaining portion of the compounds of Formula I; R 2 and R 3 are independently selected from H, fluoro, and C 1-4 alkyl; R 4 is OCH 3 ; R 5 is A is selected from C 0-1 alkylene, O, NH and NCH 3 ; and X 1 , X 2 and X 3 are the same or different and are selected from H and F, provided that two of X 1 , X 2 and X 3 are F and the other one of X 1 , X 2 and X 3 is H;
A support for power electronic components, comprising a co-laminated multilayer composite material having at least one inner layer made of a material with a thermal expansion coefficient selected according to the expansion coefficient of said components and outer layers made of a heat conductive material covering on either side said inner layer and interconnected by wells (P) made of a heat conductive material arranged in the inner layer, each inner layer constitutes an insert located only in one area for mounting the components so that the outer layers extend laterally beyond the insert.
A method for fabricating two or more electrochromic composites, the method comprising: providing an electrochromic composite comprising a strengthened glass substrate having a first surface and an opposing second surface, an electrically conductive layer supported on the first surface of the strengthened glass substrate, and an electrochromic layer in electronic communication with the electrically conductive layer; and applying laser energy to the strengthened glass substrate to cut the strengthened glass substrate to form two or more cut electrochromic composites; wherein: applying the laser energy further comprises translating the laser energy relative to a surface of the strengthened glass substrate at a speed ranging from 10 cm/s to 500 cm/s; and the laser energy forms a filamentation pattern defined by a series of regularly recurring parallel filamentation traces in the strengthened glass substrate extending from a first surface of the strengthened glass substrate toward a second surface of the strengthened glass substrate to a depth of at least 75% of the thickness as detected by optical microscopy. providing an electrochromic composite comprising a strengthened glass substrate having a first surface and an opposing second surface, an electrically conductive layer supported on the first surface of the strengthened glass substrate, and an electrochromic layer in electronic communication with the electrically conductive layer; and applying laser energy to the strengthened glass substrate to cut the strengthened glass substrate to form two or more cut electrochromic composites; wherein: applying the laser energy further comprises translating the laser energy relative to a surface of the strengthened glass substrate at a speed ranging from 10 cm/s to 500 cm/s; and the laser energy forms a filamentation pattern defined by a series of regularly recurring parallel filamentation traces in the strengthened glass substrate extending from a first surface of the strengthened glass substrate toward a second surface of the strengthened glass substrate to a depth of at least 75% of the thickness as detected by optical microscopy. applying the laser energy further comprises translating the laser energy relative to a surface of the strengthened glass substrate at a speed ranging from 10 cm/s to 500 cm/s; and the laser energy forms a filamentation pattern defined by a series of regularly recurring parallel filamentation traces in the strengthened glass substrate extending from a first surface of the strengthened glass substrate toward a second surface of the strengthened glass substrate to a depth of at least 75% of the thickness as detected by optical microscopy.
A method of imaging a biological sample stained with two or more stains, each stain identifying a particular biomarker within the biological sample, comprising: setting a power output of a light source for each of a plurality of image channels such that a predetermined power value is reached, wherein the predetermined power value is substantially the same for each of the plurality of image channels, and wherein the power output is independently set for each of the plurality of image channels; adjusting an exposure time of a camera to yield a target intensity at the predetermined power value, wherein the exposure time of each of the plurality of image channels is independently adjusted to yield the target intensity for that particular image channel; acquiring a series of images of the biological sample at each of the plurality of image channels based on the adjusted exposure times; and modifying, for each image of the series of acquired images , the image to compensate for differences in absorption and quantum yield of the two or more stains depicted by the image, wherein the image is adjusted by applying a set of derived image correction factors to a plurality of pixel values of the image, and wherein each of the set of derived image correction factors is derived based on a relative brightness of a corresponding stain of the two or more stains. setting a power output of a light source for each of a plurality of image channels such that a predetermined power value is reached, wherein the predetermined power value is substantially the same for each of the plurality of image channels, and wherein the power output is independently set for each of the plurality of image channels; adjusting an exposure time of a camera to yield a target intensity at the predetermined power value, wherein the exposure time of each of the plurality of image channels is independently adjusted to yield the target intensity for that particular image channel; acquiring a series of images of the biological sample at each of the plurality of image channels based on the adjusted exposure times; and modifying, for each image of the series of acquired images , the image to compensate for differences in absorption and quantum yield of the two or more stains depicted by the image, wherein the image is adjusted by applying a set of derived image correction factors to a plurality of pixel values of the image, and wherein each of the set of derived image correction factors is derived based on a relative brightness of a corresponding stain of the two or more stains.
An attachment member for mating with a dental implant , comprising: a non-rotational structure configured to mate with a corresponding non-rotational feature of the dental implant; and a body extending from the non-rotational structure , the body having a first body portion coupled to a second body portion , the first body portion having a top surface defining cavities , the second body portion having a top surface exposed through the gingival tissue and having a bottom surface defining cavities that correspond to the cavities in the first body portion to form radiopaque marker cavities; a screw access bore extending through the non-rotational structure ; and the body; a set of radiopaque information markers , located within the radiopaque marker cavities internal to an exterior side surface of the first and second body portions, the radiopaque information markers configured to indicate information regarding the dental implant in response to a scan from a computerized tomography (CT) scanner, wherein the screw access bore is configured to receive a screw adapted to extend through the bore to couple the non-rotational structure and the body to the dental implant . a non-rotational structure configured to mate with a corresponding non-rotational feature of the dental implant; and a body extending from the non-rotational structure , the body having a first body portion coupled to a second body portion , the first body portion having a top surface defining cavities , the second body portion having a top surface exposed through the gingival tissue and having a bottom surface defining cavities that correspond to the cavities in the first body portion to form radiopaque marker cavities; a screw access bore extending through the non-rotational structure ; and the body; a set of radiopaque information markers , located within the radiopaque marker cavities internal to an exterior side surface of the first and second body portions, the radiopaque information markers configured to indicate information regarding the dental implant in response to a scan from a computerized tomography (CT) scanner, wherein the screw access bore is configured to receive a screw adapted to extend through the bore to couple the non-rotational structure and the body to the dental implant .
A motorized tensioning device for adjusting a tensioning member in an article , comprising: a motor and a gear reduction system , wherein the motor drives the gear reduction system; a spool connected to the gear reduction system and configured to wind the tensioning member, wherein the spool rotates in a first rotational direction to tighten the tensioning member and wherein the spool rotates in a second rotational direction opposite the first rotational direction to loosen the tensioning member; a torque transmitting system cooperating with the spool, wherein the torque transmitting system substantially prevents the spool from driving the motor; and wherein the torque transmitting system is configured to transmit torque from a gear of the gear reduction system to the spool; wherein the motorized tensioning device is configured to operate in an incremental loosen mode where tension in the tensioning member is reduced by an incremental amount and the motorized tensioning device is configured to operate in a fully loosen mode where tension in the tensioning member is fully released. a motor and a gear reduction system , wherein the motor drives the gear reduction system; a spool connected to the gear reduction system and configured to wind the tensioning member, wherein the spool rotates in a first rotational direction to tighten the tensioning member and wherein the spool rotates in a second rotational direction opposite the first rotational direction to loosen the tensioning member; a torque transmitting system cooperating with the spool, wherein the torque transmitting system substantially prevents the spool from driving the motor; and wherein the torque transmitting system is configured to transmit torque from a gear of the gear reduction system to the spool; wherein the motorized tensioning device is configured to operate in an incremental loosen mode where tension in the tensioning member is reduced by an incremental amount and the motorized tensioning device is configured to operate in a fully loosen mode where tension in the tensioning member is fully released.
A method for wireless communications, comprising: generating a scheduling request, SR, for a set of data for an uplink transmission from a user equipment, UE, to a base station; determining whether the SR for the set of data is associated with a grant-free configuration for the UE; and transmitting , to the base station, an indication of whether the SR is associated with the grant-free configuration based at least in part on the determination, wherein transmitting the indication comprises: transmitting the SR to the base station, wherein the SR indicates whether the SR is associated with the grant-free configuration. generating a scheduling request, SR, for a set of data for an uplink transmission from a user equipment, UE, to a base station; determining whether the SR for the set of data is associated with a grant-free configuration for the UE; and transmitting , to the base station, an indication of whether the SR is associated with the grant-free configuration based at least in part on the determination, wherein transmitting the indication comprises: transmitting the SR to the base station, wherein the SR indicates whether the SR is associated with the grant-free configuration.