mhurhangee/ep-ind-claims huggingface dataset:
A luminaire 92) for indirect illumination, the luminaire comprising: - shielding means extending in a plane P and adapted to shield contacting means for holding a light source from being directly viewed by an observer through a light exit window - the shielding means having a first end opposite a second end, the first end bordering a concavely shaped reflective screen and the second end bordering the light exit window, characterized in that - the reflective screen being arranged opposite the light exit window and comprising a specularly reflective part and a diffusely reflective part, a first edge of the diffusely reflective part bordering the light exit window and a second edge bordering a first extremity of the specularly reflective part, a second extremity of the specularly reflective part of the reflective screen bordering the shielding means, - said contacting means being positioned between the shielding means and the specularly reflective part of the reflective screen, wherein, viewed in a cross-section perpendicular to plane P and through both the first and the second end of the shielding means, the tangent to the first extremity of the specularly reflective part encloses an angle α' of more than 25° with the plane P. - shielding means extending in a plane P and adapted to shield contacting means for holding a light source from being directly viewed by an observer through a light exit window - the shielding means having a first end opposite a second end, the first end bordering a concavely shaped reflective screen and the second end bordering the light exit window, characterized in that - the reflective screen being arranged opposite the light exit window and comprising a specularly reflective part and a diffusely reflective part, a first edge of the diffusely reflective part bordering the light exit window and a second edge bordering a first extremity of the specularly reflective part, a second extremity of the specularly reflective part of the reflective screen bordering the shielding means, - the shielding means having a first end opposite a second end, the first end bordering a concavely shaped reflective screen and the second end bordering the light exit window, characterized in that - the reflective screen being arranged opposite the light exit window and comprising a specularly reflective part and a diffusely reflective part, a first edge of the diffusely reflective part bordering the light exit window and a second edge bordering a first extremity of the specularly reflective part, a second extremity of the specularly reflective part of the reflective screen bordering the shielding means, - said contacting means being positioned between the shielding means and the specularly reflective part of the reflective screen,
Medical instrument comprising a first handle having at its proximal end a hand grip portion for manual operation, an operative portion at its distal end for gripping, clamping or cutting an object, and therebetween a bearing portion that is engaged by a male bearing element (39; 41) to allow pivotability about a pivot axis between the first handle and a second handle, the second handle having a hand grip portion at its proximal end, an operative portion at its distal end and therebetween a guide portion that is engaged by the bearing element (39; 41), wherein a bearing is configured in such a way that the two handles (2, 8) are, in an operating condition, mounted in a form-fitting manner by means of the bearing element (39; 41) but are pivotable relative to one another, and that the handles (2, 8) can, in a cleaning condition, be disassembled without the use of tools, wherein the male bearing element (39; 41) is integrally provided in the bearing portion of the first handle and wherein the guide portion of the second handle has a round configuration and has a guide slot formed on the outer circumference of the guide portion and extending in the circumferential direction, characterised in that the circumferential guide slot is interrupted by a plurality of cut-outs distributed in the circumferential direction.
A communication apparatus comprising: communication means (206, 306) for communicating a media access control, MAC, frame compliant with an Institute of Electrical and Electronics Engineers (IEEE) 802.11 series standard with another communication apparatus, and establishment means for establishing a plurality of links on a plurality of different frequency channels where multi-link communication can be performed with a partner apparatus, wherein the MAC frame communicated by the communication means (206, 306) includes a multi-link element as information related to communications via the plurality of links, and wherein the multi-link element includes a common info field and a link info field, and the common info field includes a field capable of indicating a distance between frequency channels recommended for a communication apparatus which transmits the MAC frame including the multi-link element, in the communications via the plurality of links, to perform the communications via the plurality of links asynchronously. communication means (206, 306) for communicating a media access control, MAC, frame compliant with an Institute of Electrical and Electronics Engineers (IEEE) 802.11 series standard with another communication apparatus, and establishment means for establishing a plurality of links on a plurality of different frequency channels where multi-link communication can be performed with a partner apparatus, wherein the MAC frame communicated by the communication means (206, 306) includes a multi-link element as information related to communications via the plurality of links, and wherein the multi-link element includes a common info field and a link info field, and the common info field includes a field capable of indicating a distance between frequency channels recommended for a communication apparatus which transmits the MAC frame including the multi-link element, in the communications via the plurality of links, to perform the communications via the plurality of links asynchronously.
A method of making a shelf-stable fermented dairy product, the method comprising: a. adding a stabilizer comprising a high gelling whey protein concentrate or a hydrocolloid selected from the group consisting of pectin, gelatin, carrageenan, agar, acacia gum, sodium alginate, xanthan gum, locust bean gum and carboxymethyl cellulose or a mixture thereof, to a fermented dairy component under shear at a blending rate of from 10 to 1000 rpm at a temperature of from 0.56 to 18.3 °C (33 to 65 °F) to create a shelf-stable fermented dairy mixture; b. homogenizing the fermented dairy mixture at a temperature of from 0.56 to 73.9 °C (33 to 165 °F) in a single or dual stage homogenizer with a pressure range from 3.45 to 27.58 MPa (500 to 4000 psi); c. adding a puree composition to the fermented dairy mixture at a blending rate of from 10 to 1000 rpm at a temperature of from 0.56 to 73.9 °C (33 to 165 °F); and d. heat processing the fermented dairy mixture to a temperature in the range of 85 to 116 °C (185 to 240 °F) for 10 seconds to 40 minutes, to render the fermented dairy mixture commercially sterile to form the shelf-stable fermented dairy product. a. adding a stabilizer comprising a high gelling whey protein concentrate or a hydrocolloid selected from the group consisting of pectin, gelatin, carrageenan, agar, acacia gum, sodium alginate, xanthan gum, locust bean gum and carboxymethyl cellulose or a mixture thereof, to a fermented dairy component under shear at a blending rate of from 10 to 1000 rpm at a temperature of from 0.56 to 18.3 °C (33 to 65 °F) to create a shelf-stable fermented dairy mixture; b. homogenizing the fermented dairy mixture at a temperature of from 0.56 to 73.9 °C (33 to 165 °F) in a single or dual stage homogenizer with a pressure range from 3.45 to 27.58 MPa (500 to 4000 psi); c. adding a puree composition to the fermented dairy mixture at a blending rate of from 10 to 1000 rpm at a temperature of from 0.56 to 73.9 °C (33 to 165 °F); and d. heat processing the fermented dairy mixture to a temperature in the range of 85 to 116 °C (185 to 240 °F) for 10 seconds to 40 minutes, to render the fermented dairy mixture commercially sterile to form the shelf-stable fermented dairy product.
A communications method for wireless networks, comprising: receiving, by a centralized unit, CU, from a distributed unit, DU, a correspondence between an absolute time and a radio frame number and a scheduling arrangement of each system information block, SIB, sending, by the CU, a message comprising first absolute time corresponding to a first radio frame number of the message to a user equipment, UE; setting, by the CU, at the SDAP or PDCP layer, time information which corresponds to a data unit to be sent to the UE. receiving, by a centralized unit, CU, from a distributed unit, DU, a correspondence between an absolute time and a radio frame number and a scheduling arrangement of each system information block, SIB, sending, by the CU, a message comprising first absolute time corresponding to a first radio frame number of the message to a user equipment, UE; setting, by the CU, at the SDAP or PDCP layer, time information which corresponds to a data unit to be sent to the UE.
Periscope system having a housing (1;11) with a view out, an internal prism block with an upper deflection face and with a lower horizontal terminating face, and having a view in from a separate lower deflection mirror, which is formed so as to be pivotable about a horizontal pivot axis on the housing (1; 11), transversely with respect to the viewing direction, into a horizontal position underneath or in the housing (1; 11), and having an associated electronic display after the deflection mirror in the viewing direction, characterized in that the display is arranged on a display holder, which is formed as part of the housing (1; 11) of the periscope system, wherein, in order to produce an enlarged freedom of movement within a vehicle, the display holder is formed so as to be pivotable about a horizontal pivot axis into a horizontal position underneath a pivoted-up deflection mirror.
An optoelectronic 3D sensor for personal protection for safe detection of objects (32, 34) of a minimum size in a monitored area, the sensor having an image sensor (16a-b) for recording three-dimensional image data of the monitored area and having an evaluation unit configured to detect objects (32, 34) in the image data with a detection capability and, for monitoring a danger area, to trigger a safety-related safeguarding signal in the event of impermissible intrusion into a protective field or an object (32, 34) located too close to the danger area, the detection capability indicating objects of which minimum dimensions are reliably detected, characterized in that the evaluation unit is further configured to detect in the image data both objects (34, 36) finely detected with a fine detection capability and objects coarsely detected with a coarse detection capability coarser than the fine detection capability and to ignore those finely detected objects that are not located in a vicinity of a coarsely detected object.
An electronic device comprising a chip and an antenna, a plastic package wherein said chip and an antenna are integrated and wherein said plastic package forms a bobbin on its outer surface, on which a coupling antenna having at least one coil winding is arranged, characterized in that said coupling antenna comprises a core material and at least one reinforcement material co-twisted with or wrapped around said core material, said at least one reinforcement material is a high strength polymeric reinforcement yarn made from a polymeric material having a melting or thermal degradation point higher than 200°C.
A load control circuit for controlling a target intensity level of a lighting load, said load control circuit comprising: a bus-voltage-generating circuit receiving a phase-control voltage having a duty cycle (DCPC) and producing a DC bus voltage (VBUS); a load regulation circuit receiving said DC bus voltage (VBUS) and adapted to be coupled to said lighting load for adjusting the intensity of said lighting load; and a control circuit operable to determine said target intensity level of said lighting load in response to said duty cycle (DCPC) of said phase-control voltage, said control circuit controlling said load regulation circuit to adjust the intensity level of said lighting load in response to said duty cycle (DCPC) of said phase-control voltage and an actual-intensity signal related to the actual intensity level of said lighting load; characterized in that said control circuit adjusts said target intensity level (LTRGT) of said lighting load using a slow time constant (TDLPF-SLOW) in response to changes in said duty cycle (DCPC) of said phase-control voltage that are below a threshold amount, and adjusts said target intensity level (LTRGT) of said lighting load using a fast time constant (TDLPF-FAST) less than said slow time constant (TDLPF-SLOW) in response to intentional changes in said duty cycle (DCPC) of said phase-control voltage. a bus-voltage-generating circuit receiving a phase-control voltage having a duty cycle (DCPC) and producing a DC bus voltage (VBUS); a load regulation circuit receiving said DC bus voltage (VBUS) and adapted to be coupled to said lighting load for adjusting the intensity of said lighting load; and a control circuit operable to determine said target intensity level of said lighting load in response to said duty cycle (DCPC) of said phase-control voltage, said control circuit controlling said load regulation circuit to adjust the intensity level of said lighting load in response to said duty cycle (DCPC) of said phase-control voltage and an actual-intensity signal related to the actual intensity level of said lighting load; characterized in that said control circuit adjusts said target intensity level (LTRGT) of said lighting load using a slow time constant (TDLPF-SLOW) in response to changes in said duty cycle (DCPC) of said phase-control voltage that are below a threshold amount, and adjusts said target intensity level (LTRGT) of said lighting load using a fast time constant (TDLPF-FAST) less than said slow time constant (TDLPF-SLOW) in response to intentional changes in said duty cycle (DCPC) of said phase-control voltage.
A platform assembly for a fan of a gas turbine engine, comprising: a lug having a head, a base, and a leg extending between the head and the base; and a platform at least partially disposed about the head, the platform having an outer surface and an inner surface, the head being arranged to engage the inner surface; characterised in that the platform has been molded about the head of the lug. a lug having a head, a base, and a leg extending between the head and the base; and a platform at least partially disposed about the head, the platform having an outer surface and an inner surface, the head being arranged to engage the inner surface; characterised in that the platform has been molded about the head of the lug.
A computer implemented method of generating a virtual representation of a linear lighting device configured to be mounted in different shapes, which linear lighting device comprises a plurality of linearly distributed light sources, the computer implemented method comprising the steps of: - receiving, via a receiver, one or more signals comprising an identifier of the linear lighting device, the one or more signals further comprising information about a number and a distribution of the plurality of linearly distributed light sources, - identifying, by a processor, the linear lighting device based on the received one or more signals, - capturing, by an image capture means, one or more images of the linear lighting device and providing image information representing the one or more images, - determining, by the processor, a shape of the linear lighting device based on the image information, - determining, by the processor, a spaial distribution of the light sources based on the received one or more signals and the image information by mapping the plurality of linearly distributed light sources onto the shape, - generating, by the processor, the virtual representation of the shape of the linear lighting device based on the spatial distribution, and - displaying, on a display, the virtual representation of the shape of the linear lighting device. - receiving, via a receiver, one or more signals comprising an identifier of the linear lighting device, the one or more signals further comprising information about a number and a distribution of the plurality of linearly distributed light sources, - identifying, by a processor, the linear lighting device based on the received one or more signals, - capturing, by an image capture means, one or more images of the linear lighting device and providing image information representing the one or more images, - determining, by the processor, a shape of the linear lighting device based on the image information, - determining, by the processor, a spaial distribution of the light sources based on the received one or more signals and the image information by mapping the plurality of linearly distributed light sources onto the shape, - generating, by the processor, the virtual representation of the shape of the linear lighting device based on the spatial distribution, and - displaying, on a display, the virtual representation of the shape of the linear lighting device.
A standard light source color matching observation box, comprising a box body, wherein the box body has an opening at one side and forms an observation chamber in the interior space, wherein the observation chamber has with respect to the opening a top, a left side at the top, a right side at the top, a front side at the top of the opening and a rear side at the top opposite of the opening, the top of the observation chamber is provided with a standard light source, wherein the standard light source comprises a halogen tungsten lamp, a light filter is provided between the halogen tungsten lamp and the observation chamber, wherein the halogen tungsten lamp is configured to emit a light ray through the light filter, the top of the observation chamber is further provided with a narrow-wave LED light source configured to emit LED light of a predetermined illumination energy, wherein the halogen tungsten lamp and the LED light source are arranged for the light ray of the halogen tungsten lamp emitted through the light filter to be mixed with the LED light in the observation chamber, characterized in that the light ray emitted by the halogen tungsten lamp is used as the main body radiation light ray, and in that illumination energy of the narrow-wave LED light source is set to occupy 20% or less of the total radiation energy provided by the standard light source and the LED light source. wherein the observation chamber has with respect to the opening a top, a left side at the top, a right side at the top, a front side at the top of the opening and a rear side at the top opposite of the opening, the top of the observation chamber is provided with a standard light source, wherein the standard light source comprises a halogen tungsten lamp, a light filter is provided between the halogen tungsten lamp and the observation chamber, wherein the halogen tungsten lamp is configured to emit a light ray through the light filter, the top of the observation chamber is further provided with a narrow-wave LED light source configured to emit LED light of a predetermined illumination energy, wherein the halogen tungsten lamp and the LED light source are arranged for the light ray of the halogen tungsten lamp emitted through the light filter to be mixed with the LED light in the observation chamber, characterized in that the light ray emitted by the halogen tungsten lamp is used as the main body radiation light ray, and in that illumination energy of the narrow-wave LED light source is set to occupy 20% or less of the total radiation energy provided by the standard light source and the LED light source.
An isolated, synthetic or recombinant nucleic acid comprising (a) a nucleic acid encoding at least one polypeptide, wherein the nucleic acid comprises a sequence having at least about 85%, 86%, 87%, 88%, 89%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98%, 99%, or more, sequence identity to SEQ ID NO:1, and having one or more nucleotide changes encoding one amino acid change D61A or D61E, wherein the nucleic acid encodes at least one polypeptide having a hydrolase activity comprising palmitase activity, (b) a nucleic acid encoding at least one polypeptide having a hydrolase activity comprising palmitase activity, wherein the polypeptide comprises the sequence of SEQ ID NO:2, or enzymatically active fragments thereof, and having at least one amino acid change D61A or D61E, (c) the nucleic acid of (a) or (b) encoding a polypeptide having a hydrolase activity comprising palmitase activity but lacking a signal sequence, (d) the nucleic acid of any of (a) to (c) encoding a polypeptide having a hydrolase activity comprising palmitase activity further comprising a heterologous sequence, (e) the nucleic acid of (d), wherein the heterologous sequence comprises, or consists of a sequence encoding: a heterologous signal sequence, the sequence of, wherein the heterologous signal sequence is derived from a heterologous enzyme, or, a tag, an epitope, a targeting peptide, a cleavable sequence, a detectable moiety or an enzyme, or, (f) a nucleic acid sequence fully complementary to the sequence of any of (a) to (e). (a) a nucleic acid encoding at least one polypeptide, wherein the nucleic acid comprises a sequence having at least about 85%, 86%, 87%, 88%, 89%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98%, 99%, or more, sequence identity to SEQ ID NO:1, and having one or more nucleotide changes encoding one amino acid change D61A or D61E, wherein the nucleic acid encodes at least one polypeptide having a hydrolase activity comprising palmitase activity, (b) a nucleic acid encoding at least one polypeptide having a hydrolase activity comprising palmitase activity, wherein the polypeptide comprises the sequence of SEQ ID NO:2, or enzymatically active fragments thereof, and having at least one amino acid change D61A or D61E, (c) the nucleic acid of (a) or (b) encoding a polypeptide having a hydrolase activity comprising palmitase activity but lacking a signal sequence, (d) the nucleic acid of any of (a) to (c) encoding a polypeptide having a hydrolase activity comprising palmitase activity further comprising a heterologous sequence, (e) the nucleic acid of (d), wherein the heterologous sequence comprises, or consists of a sequence encoding: a heterologous signal sequence, the sequence of, wherein the heterologous signal sequence is derived from a heterologous enzyme, or, a tag, an epitope, a targeting peptide, a cleavable sequence, a detectable moiety or an enzyme, or, (f) a nucleic acid sequence fully complementary to the sequence of any of (a) to (e).