mhurhangee/ep-ind-claims huggingface dataset:
An SSL lighting device comprising: a housing which has a reflective inner surface; an elongated light guide which includes a wavelength converting material for converting light in a first wavelength range to light in a second wavelength range, the elongated light guide extending between two ends (7a, 7b) and further comprising a portion for receiving light and a portion for emitting light, wherein the portion for receiving light is arranged inside the housing and the portion for emitting light is arranged outside the housing and wherein at least one of the two ends (7a, 7b), which is outside the housing, forms the portion for emitting light; and a plurality of SSL light sources which are configured to emit light in the first wavelength range and which are arranged inside the housing at a distance from and along the longitudinal direction of the elongated light guide, wherein a part of the light emitted from the plurality of SSL light sources into the housing enters the light guide via the portion for receiving light and is absorbed and converted by the wavelength converting material, wherein a part of the converted light is waveguided inside the light guide and emitted through the portion for emitting light. a housing which has a reflective inner surface; an elongated light guide which includes a wavelength converting material for converting light in a first wavelength range to light in a second wavelength range, the elongated light guide extending between two ends (7a, 7b) and further comprising a portion for receiving light and a portion for emitting light, wherein the portion for receiving light is arranged inside the housing and the portion for emitting light is arranged outside the housing and wherein at least one of the two ends (7a, 7b), which is outside the housing, forms the portion for emitting light; and a plurality of SSL light sources which are configured to emit light in the first wavelength range and which are arranged inside the housing at a distance from and along the longitudinal direction of the elongated light guide, wherein a part of the light emitted from the plurality of SSL light sources into the housing enters the light guide via the portion for receiving light and is absorbed and converted by the wavelength converting material, wherein a part of the converted light is waveguided inside the light guide and emitted through the portion for emitting light.
A method performed by a network node of a wireless communication network, for communicating at an unlicensed frequency spectrum with a wireless device having a Cell Radio Network Temporary Identifier, C-RNTI, the method comprising: sending an access grant to the wireless device according to the C-RNTI, granting the wireless device access to a Physical Uplink Shared Channel, PUSCH, of the unlicensed frequency spectrum; storing the C-RNTI associated with the access grant; receiving data, from the wireless device, on the granted PUSCH, the data comprising information on the C-RNTI of the wireless device, thus enabling the network node to detect whether the wireless device that was granted access on the PUSCH is the same wireless device as the wireless device from which the data comprising the information on the granted PUSCH was subsequently received, wherein the data further comprises Uplink Control Information, UCI, and wherein the information on the C-RNTI of the wireless device and the UCI are encoded and wherein the information on the C-RNTI of the wireless device and the UCI are received concatenated together on the granted PUSCH; and determining, in response to the reception of the data comprising the C-RNTI information, that the C-RNTI information corresponds to the wireless device to which the access grant was sent, wherein the determining comprises comparing the received C-RNTI information with the stored C-RNTI. sending an access grant to the wireless device according to the C-RNTI, granting the wireless device access to a Physical Uplink Shared Channel, PUSCH, of the unlicensed frequency spectrum; storing the C-RNTI associated with the access grant; receiving data, from the wireless device, on the granted PUSCH, the data comprising information on the C-RNTI of the wireless device, thus enabling the network node to detect whether the wireless device that was granted access on the PUSCH is the same wireless device as the wireless device from which the data comprising the information on the granted PUSCH was subsequently received, wherein the data further comprises Uplink Control Information, UCI, and wherein the information on the C-RNTI of the wireless device and the UCI are encoded and wherein the information on the C-RNTI of the wireless device and the UCI are received concatenated together on the granted PUSCH; and determining, in response to the reception of the data comprising the C-RNTI information, that the C-RNTI information corresponds to the wireless device to which the access grant was sent, wherein the determining comprises comparing the received C-RNTI information with the stored C-RNTI.
Floor formwork support structure, comprising diagonal reinforcements and height-adjustable props on which said diagonal reinforcements are mounted, one of the ends of which reinforcements is attached in a hole in the upper portion of a prop and a region close to the other end of said reinforcements is attached to a second prop, the upper portion of the props comprising respective rows of adjustment holes, wherein each of the diagonal reinforcements comprises a projecting pivot close to the upper end thereof, or on the upper end itself, characterised in that the free end of which pivot is curved, the projecting pivot and the curved free end of said pivot being in a plane perpendicular to a longitudinal axis of the reinforcement, adopting a curvature that allows the curved end of the pivot to be progressively inserted into one of the adjustment holes in the prop by rotating the reinforcement about the axis thereof, the reinforcement simultaneously rolling on the surface of the prop, and being possible to detach the reinforcement simply by reproducing the insertion movement in reverse.
A method of driving an elevator car comprising: converting alternating current from a main power supply to direct current at a power converter; converting direct current at the power converter to alternating current at a power inverter; powering a hoist motor coupled to the power inverter configured to have a regenerative mode; connecting an isolated bi-directional dc/dc converter between the power converter and the power inverter; monitoring a voltage level of the main power supply; and based on a determination that the voltage level of the main power supply is below a first predetermined threshold, directing the isolated bi-directional dc/dc converter to boost a voltage input from a battery to a level sufficient to drive the elevator car in a rescue mode, wherein the rescue mode drives the elevator car at a low speed in a direction assisted by gravity; monitoring a voltage level of the battery; based on a determination that the voltage level of the battery is below a second predetermined threshold and a determination that the voltage level of the main power supply is above the first predetermined threshold, charging the battery via the isolated bi-directional dc/dc converter; monitoring a temperature of the battery; characterised in that charging the battery comprises: determining an optimum charging cycle for the battery using the voltage level of the battery and the temperature of the battery; and applying the optimum charging cycle to the battery. converting alternating current from a main power supply to direct current at a power converter; converting direct current at the power converter to alternating current at a power inverter; powering a hoist motor coupled to the power inverter configured to have a regenerative mode; connecting an isolated bi-directional dc/dc converter between the power converter and the power inverter; monitoring a voltage level of the main power supply; and based on a determination that the voltage level of the main power supply is below a first predetermined threshold, directing the isolated bi-directional dc/dc converter to boost a voltage input from a battery to a level sufficient to drive the elevator car in a rescue mode, wherein the rescue mode drives the elevator car at a low speed in a direction assisted by gravity; monitoring a voltage level of the battery; based on a determination that the voltage level of the battery is below a second predetermined threshold and a determination that the voltage level of the main power supply is above the first predetermined threshold, charging the battery via the isolated bi-directional dc/dc converter; monitoring a temperature of the battery; characterised in that charging the battery comprises: determining an optimum charging cycle for the battery using the voltage level of the battery and the temperature of the battery; and applying the optimum charging cycle to the battery. determining an optimum charging cycle for the battery using the voltage level of the battery and the temperature of the battery; and applying the optimum charging cycle to the battery.
A method for modifying a sequence of instructions in a read-only memory, the method comprising: providing set of addressable memory locations coupled to a processor; providing a set of one time programmable fuses further coupled to the processor; providing a sequence of instructions in a read-only memory coupled to the processor; and enabling a patch process in the read-only memory that dynamically vectors to identified locations in the set of addressable memory locations and returns to the sequence of instructions in the read-only memory, wherein when it is desired to modify the sequence of instructions, information in the set of one time programmable fuses directs the processor to execute at least one instruction from a patch instance; further comprising: inserting at least one patch indicator at a desired location in the sequence of instructions in the read-only memory, wherein at least one patch instance in the set of addressable memory locations as defined by the at least one patch indicator includes empty content before a modification to the sequence of instructions in the read-only memory is identified; wherein after a modification to the sequence of instructions in the read-only memory the at least one patch instance includes at least an instruction type and a patch address; wherein the patch instance includes mask information and is defined in no more than two words of N bits, where N is an integer. providing set of addressable memory locations coupled to a processor; providing a set of one time programmable fuses further coupled to the processor; providing a sequence of instructions in a read-only memory coupled to the processor; and enabling a patch process in the read-only memory that dynamically vectors to identified locations in the set of addressable memory locations and returns to the sequence of instructions in the read-only memory, wherein when it is desired to modify the sequence of instructions, information in the set of one time programmable fuses directs the processor to execute at least one instruction from a patch instance; further comprising: inserting at least one patch indicator at a desired location in the sequence of instructions in the read-only memory, wherein at least one patch instance in the set of addressable memory locations as defined by the at least one patch indicator includes empty content before a modification to the sequence of instructions in the read-only memory is identified; wherein after a modification to the sequence of instructions in the read-only memory the at least one patch instance includes at least an instruction type and a patch address; wherein the patch instance includes mask information and is defined in no more than two words of N bits, where N is an integer.
A label adapted to be attached to the surface of an item, the label comprising an adhesive layer and a plastic facestock layer transparent to visible light, wherein the plastic facestock layer comprises at least one layer comprising from 85 to 90 wt.% of starch based polymer which is unmodified or chemically modified amylose rich starch, or starch blend, and wherein an amylose content of the starch based polymer is at least 40 %, and wherein the label is arranged to be removable from the surface.
A multiband Remote Radio Unit, comprising: a common slot, an antenna and a plurality of function modules; wherein the common slot is connected with the antenna and comprises a plurality of slots, and each function module (1061, 1062, 1063, 1064) is inserted in a different slot of the common slot respectively; characterized in that the RRU further comprises: a holding pole; wherein the common slot is fixed on the holding pole, an upper side of the antenna is fixed on the common slot to regulate a declination angle of the antenna, and a lower end of the antenna is fixed on the holding pole; wherein the common slot and the antenna are located at different sides of the holding pole.
A method for coating a surface, particularly a microstructured surface, of a component, where the surface is firstly activated and then coated, characterised in that the component consists of glass and silicon and has surfaces made of glass and silicon, that for activation of the surfaces of glass and silicon, an oxidising solution or an acid-oxidising solution is used, that for coating the surfaces of glass and silicon, functional silanes are used in non-polar, aprotic or polar, protic solvents, and that for coating the surfaces of glass and silicon, the component is treated in the reaction solution by means of ultrasound.
A bar code reader comprising: a laser light output circuit operable to provide a pulsed laser light output toward a bar code, the pulsed laser light output having a specified frequency; a photodiode to convert light received at the bar code reader into an electrical signal; a first signal conditioning circuit to filter and amplify the electrical signal, to thereby provide a conditioned electrical signal; a detection circuit operable to sample the conditioned electrical signal at the specified frequency of the pulsed laser light output to produce a sampled electrical signal; characterized in that a second signal conditioning circuit is operable to filter out low frequency electrical signals corresponding to light energy due to light scattering within a housing of the bar code reader and to amplify the sampled electrical signal and comprise a differential circuit configured to remove low-frequency noise energy from the sampled electrical signal emerging from the detection circuit; and a digitizer for generating one of a logical "1" and a logical "0" output based on a value of the amplified, sampled electrical signal; and a decoder for resolving output from the digitizer into data indicative of information on the bar code. a laser light output circuit operable to provide a pulsed laser light output toward a bar code, the pulsed laser light output having a specified frequency; a photodiode to convert light received at the bar code reader into an electrical signal; a first signal conditioning circuit to filter and amplify the electrical signal, to thereby provide a conditioned electrical signal; a detection circuit operable to sample the conditioned electrical signal at the specified frequency of the pulsed laser light output to produce a sampled electrical signal; characterized in that a second signal conditioning circuit is operable to filter out low frequency electrical signals corresponding to light energy due to light scattering within a housing of the bar code reader and to amplify the sampled electrical signal and comprise a differential circuit configured to remove low-frequency noise energy from the sampled electrical signal emerging from the detection circuit; and a digitizer for generating one of a logical "1" and a logical "0" output based on a value of the amplified, sampled electrical signal; and a decoder for resolving output from the digitizer into data indicative of information on the bar code.
A vacuum cleaner comprising, a main body; and a cyclone dust collector separably installed on the main body, wherein the cyclone dust collector includes: a case configured to swirl suctioned air to separate dust from the suctioned air and accommodate the separated dust; a grill assembly separably installed on the case; and a cleaning portion included in the case and configured to remove dust adhered to a surface of the grill assembly when the grill assembly is separated from the case, characterized in that: the grill assembly is fixed to the case when the grill assembly is installed on the case, and the grill assembly is separable from the case when the cyclone dust collector is separated from the main body. a main body; and a cyclone dust collector separably installed on the main body, wherein the cyclone dust collector includes: a case configured to swirl suctioned air to separate dust from the suctioned air and accommodate the separated dust; a grill assembly separably installed on the case; and a cleaning portion included in the case and configured to remove dust adhered to a surface of the grill assembly when the grill assembly is separated from the case, characterized in that: the grill assembly is fixed to the case when the grill assembly is installed on the case, and the grill assembly is separable from the case when the cyclone dust collector is separated from the main body. a case configured to swirl suctioned air to separate dust from the suctioned air and accommodate the separated dust; a grill assembly separably installed on the case; and a cleaning portion included in the case and configured to remove dust adhered to a surface of the grill assembly when the grill assembly is separated from the case, characterized in that: the grill assembly is fixed to the case when the grill assembly is installed on the case, and the grill assembly is separable from the case when the cyclone dust collector is separated from the main body. the grill assembly is fixed to the case when the grill assembly is installed on the case, and the grill assembly is separable from the case when the cyclone dust collector is separated from the main body.
A zoom lens comprising, in order from an object side to an image side: a first lens unit having a positive refractive power; a second lens unit having a negative refractive power; a third lens unit having a positive refractive power; and a rear lens group that has one or more lens units, wherein spacings between lens units adjacent to each other change during zooming, wherein at least of a part of the second lens unit constitutes a first correction lens system that is rotatable about a first center of rotation, which is one point on an optical axis or in the vicinity of the optical axis, during image blur correction, wherein at least of a part of an optical system disposed on the image side of the second lens unit constitutes a second correction lens system that is rotatable about a second center of rotation, which is one point on an optical axis or in the vicinity of the optical axis, during image blur correction, wherein the first center of rotation is positioned on the image side of a surface vertex of a lens surface of the first correction lens system closest to the object side, and wherein the second center of rotation is positioned on the image side of a surface vertex of a lens surface of the second correction lens system closest to the object side. a first lens unit having a positive refractive power; a second lens unit having a negative refractive power; a third lens unit having a positive refractive power; and a rear lens group that has one or more lens units, wherein spacings between lens units adjacent to each other change during zooming, wherein at least of a part of the second lens unit constitutes a first correction lens system that is rotatable about a first center of rotation, which is one point on an optical axis or in the vicinity of the optical axis, during image blur correction, wherein at least of a part of an optical system disposed on the image side of the second lens unit constitutes a second correction lens system that is rotatable about a second center of rotation, which is one point on an optical axis or in the vicinity of the optical axis, during image blur correction, wherein the first center of rotation is positioned on the image side of a surface vertex of a lens surface of the first correction lens system closest to the object side, and wherein the second center of rotation is positioned on the image side of a surface vertex of a lens surface of the second correction lens system closest to the object side.
An input device comprising: a keyset assembly including an arrangement of keys; and a sensor key included as a key within the arrangement of keys including: an integrated circuit die implementing a fingerprint sensor, providing functionality for fingerprint recognition; a transmission layer configured to transmit light disposed over the integrated circuit die; a patterned cover disposed over the transmission layer and the fingerprint sensor, a flexible printed circuit and, a backlight positioned below the integrated circuit die, wherein the backlight is implemented as a component of the flexible printed circuit and is configured to transmit light around the sides of the integrated circuit die and through the transmission layer to illuminate a pattern of the patterned cover and thereby provide indications indicative of a status of the integrated circuit die; control logic configured to selectively operate the backlight to provide different indications regarding the status of the integrated circuit die by selectively changing light that is emitted via the patterned cover. a keyset assembly including an arrangement of keys; and a sensor key included as a key within the arrangement of keys including: an integrated circuit die implementing a fingerprint sensor, providing functionality for fingerprint recognition; a transmission layer configured to transmit light disposed over the integrated circuit die; a patterned cover disposed over the transmission layer and the fingerprint sensor, a flexible printed circuit and, a backlight positioned below the integrated circuit die, wherein the backlight is implemented as a component of the flexible printed circuit and is configured to transmit light around the sides of the integrated circuit die and through the transmission layer to illuminate a pattern of the patterned cover and thereby provide indications indicative of a status of the integrated circuit die; control logic configured to selectively operate the backlight to provide different indications regarding the status of the integrated circuit die by selectively changing light that is emitted via the patterned cover. an integrated circuit die implementing a fingerprint sensor, providing functionality for fingerprint recognition; a transmission layer configured to transmit light disposed over the integrated circuit die; a patterned cover disposed over the transmission layer and the fingerprint sensor, a flexible printed circuit and, a backlight positioned below the integrated circuit die, wherein the backlight is implemented as a component of the flexible printed circuit and is configured to transmit light around the sides of the integrated circuit die and through the transmission layer to illuminate a pattern of the patterned cover and thereby provide indications indicative of a status of the integrated circuit die; control logic configured to selectively operate the backlight to provide different indications regarding the status of the integrated circuit die by selectively changing light that is emitted via the patterned cover.