mhurhangee/ep-ind-claims huggingface dataset:
Harvesting machine, in particular a loading wagon, with a receiving device for receiving harvested material, which comprises a pickup conveyor, preferably in the form of a liftable and lowerable pick-up, including a rotatively-drivable spiked roller to collect the harvested material from the ground, as well as a feed conveyor downstream of the pickup conveyor, preferably in the form of a conveying rotor, to convey the picked-up harvested material, through a conveying channel, into a harvested material space, as well as moreover with detection means (14, 15, 16, 17, 18, 19, 20) to detect operating and/or processing parameters, as well as a control device to output control signals for the harvesting machine, wherein the pickup conveyor and the feed conveyor are controllable independently of one another through the control device in such a manner that the ratio of pickup conveyor drive speed to the feed conveyor drive speed is varied, depending on alteration of the detected operating and/or processing parameters, through the control device, characterized in that the feed conveyor drive speed is controlled by the control device depending on a backpressure of the harvested material in the harvested material space.
A wearable device (100; 200; 300; 400; 500; 600) for optogenetic motor control and restoring sensation in a mammal, comprising: a) a wearable support (105; 205; 305; 405; 505; 605) configured to be positioned at a skin surface and in proximity to at least one peripheral nerve of the mammal; b) a power source ('a') at the wearable support; c) a controller at the wearable support and in electrical communication with the power source; and d) a transdermal light source ('b') at the wearable support and coupled to the controller, the controller configured to employ closed loop feedback from at least one sensor in communication with the controller to drive the light source to direct light from the wearable support and directed toward the at least one peripheral nerve of the mammal while wearing the support, the light source emitting light at a wavelength required for a specific opsin to respond to illumination, the specific opsin being of a type that is functionally expressed by an optogenetically altered nerve, the controller controlling at least one of frequency, power, and duty cycle of the directed light to induce muscle contraction for motor control or to provide stimulation of sensory fibers for restoring sensation. a) a wearable support (105; 205; 305; 405; 505; 605) configured to be positioned at a skin surface and in proximity to at least one peripheral nerve of the mammal; b) a power source ('a') at the wearable support; c) a controller at the wearable support and in electrical communication with the power source; and d) a transdermal light source ('b') at the wearable support and coupled to the controller, the controller configured to employ closed loop feedback from at least one sensor in communication with the controller to drive the light source to direct light from the wearable support and directed toward the at least one peripheral nerve of the mammal while wearing the support, the light source emitting light at a wavelength required for a specific opsin to respond to illumination, the specific opsin being of a type that is functionally expressed by an optogenetically altered nerve, the controller controlling at least one of frequency, power, and duty cycle of the directed light to induce muscle contraction for motor control or to provide stimulation of sensory fibers for restoring sensation.
A flow-through cell comprising: a fluid inlet where a fluid including magnetic particles attached to a labeling substance is flowed into; a fluid outlet where said fluid is exhausted from; a trapping region comprising magnetic trap means for trapping the flowed magnetic particles; a working electrode and a counter electrode (16a, 16b) to apply a voltage to the magnetic particles trapped by said magnetic trap means, and to emit a luminescence; a window arranged opposed to said trapping region, and passing a luminescence from the labeling substance; and wherein the flow-through cell is characterized in comprising regulating means to regulate that the luminescence passing said window is the luminescence from the labeling substance only from an upstream part of magnetic particles among the magnetic particles trapped in said trapping region. a fluid inlet where a fluid including magnetic particles attached to a labeling substance is flowed into; a fluid outlet where said fluid is exhausted from; a trapping region comprising magnetic trap means for trapping the flowed magnetic particles; a working electrode and a counter electrode (16a, 16b) to apply a voltage to the magnetic particles trapped by said magnetic trap means, and to emit a luminescence; a window arranged opposed to said trapping region, and passing a luminescence from the labeling substance; and wherein the flow-through cell is characterized in comprising regulating means to regulate that the luminescence passing said window is the luminescence from the labeling substance only from an upstream part of magnetic particles among the magnetic particles trapped in said trapping region.
A reach arrangement for electro-optically reading symbols of different symbologies, and for minimizing misdecodes of GS1 DataBar Limited (Databar-limited) symbols in a reader the arrangement comprising: a data capture assembly for capturing light from a target symbol, and for generating an electrical signal indicative of the captured light; and a controller for processing and decoding the electrical signal, and for determining whether the decoded signal is indicative of a Databar-limited symbol, and for determining whether the decoded signal has characteristics indicative of a different symbology other than the Databar-limited symbol characterized in that in the event that the decoded signal has characteristics indicative of a different symbology, the controller for further checking whether contextual information from the Databar-limited symbol is available and is compatible to the different symbology to indicate whether a misdecode of the Databar-limited symbol has occurred. a data capture assembly for capturing light from a target symbol, and for generating an electrical signal indicative of the captured light; and a controller for processing and decoding the electrical signal, and for determining whether the decoded signal is indicative of a Databar-limited symbol, and for determining whether the decoded signal has characteristics indicative of a different symbology other than the Databar-limited symbol characterized in that in the event that the decoded signal has characteristics indicative of a different symbology, the controller for further checking whether contextual information from the Databar-limited symbol is available and is compatible to the different symbology to indicate whether a misdecode of the Databar-limited symbol has occurred.
A silicon nitride sintered body comprising β-sialon expressed by a composition formula of Si 6-z Al z O z N 8-z, wherein z value being the dissolved amount is 0.1 to 1, as a main phase, a grain boundary phase and Fe silicide particles, wherein the grain boundary phase contains RE (Group III elements in the periodic table)-Al-Si-O, wherein the contents of RE and Al in mass % in the silicon nitride sintered body measured by inductively coupled plasma atomic emission spectroscopy are converted to the contents in mass % in terms of RE 2 O 3 and Al 2 O 3, respectively, the amount of oxygen component of RE 2 O 3 and Al 2 O 3 in mass % are subtracted from the entire oxygen content in mass % in the silicon nitride sintered body, the entire oxygen content being measured by an oxygen analysis apparatus, and the remaining oxygen content in mass % is then converted to an amount of SiO 2 in mass %, and the sum of Al 2 O 3, SiO 2 and RE 2 O 3 is supposed to be 100% by mass, the component ratios of Al, Si and RE in terms of Al 2 O 3, SiO 2, RE 2 O 3, respectively is 5 to 50 mass % of Al 2 O 3, 5 to 20 mass % of SiO 2, and the balanced amount of RE 2 O 3, wherein the content of the grain boundary phase calculated by using values converted in terms of Al 2 O 3, SiO 2 and RE 2 O 3 is contained in a range of 20 volume % or less in 100 volume % of the silicon nitride sintered body, wherein the Fe silicide particles are contained in 0.02 to 3 mass % in terms of Fe in 100 mass % of the sintered body, and wherein the thermal conductivity at 800 °C is 10 W/(m K) or more, and the four-point flexural strength at 800 °C is 500 MPa or more.
An orthopedic driver, comprising: an elongate tubular body comprising a lumen extending from a distal end to a proximal end; and an indicator assembly disposed between the proximal end and the distal end of the elongate body, the indicator assembly comprising: a housing having at least one opening; and a visual indicator disposed in the at least one opening, the visual indicator configured to be coupled with a guide pin such that lateral movement of the elongate tubular body relative to the guide pin causes the visual indicator to move between a flush or recessed configuration within the housing and an extended configuration in which the visual indicator extends outward of an outer surface of the housing; wherein the flush or recessed configuration corresponds to alignment of the guide pin relative to the elongate tubular body and the extended configuration corresponds to misalignment of the guide pin relative to the elongate tubular body. an elongate tubular body comprising a lumen extending from a distal end to a proximal end; and an indicator assembly disposed between the proximal end and the distal end of the elongate body, the indicator assembly comprising: a housing having at least one opening; and a visual indicator disposed in the at least one opening, the visual indicator configured to be coupled with a guide pin such that lateral movement of the elongate tubular body relative to the guide pin causes the visual indicator to move between a flush or recessed configuration within the housing and an extended configuration in which the visual indicator extends outward of an outer surface of the housing; wherein the flush or recessed configuration corresponds to alignment of the guide pin relative to the elongate tubular body and the extended configuration corresponds to misalignment of the guide pin relative to the elongate tubular body. a housing having at least one opening; and a visual indicator disposed in the at least one opening, the visual indicator configured to be coupled with a guide pin such that lateral movement of the elongate tubular body relative to the guide pin causes the visual indicator to move between a flush or recessed configuration within the housing and an extended configuration in which the visual indicator extends outward of an outer surface of the housing; wherein the flush or recessed configuration corresponds to alignment of the guide pin relative to the elongate tubular body and the extended configuration corresponds to misalignment of the guide pin relative to the elongate tubular body.
System for amplifying a nucleic acid, comprising: - at least one local heating element which is functionalized with at least one linking nucleic acid and is designed to be in contact with a reaction solution for carrying out a polymerase chain reaction for amplifying a nucleic acid, wherein the at least one local heating element is designed as a nanoparticle and is in particular designed to transfer heat to its surroundings by excitation, or wherein the at least one local heating element is designed as a microheating element and is in particular designed to transfer heat to its surroundings by resistive heating, and - at least one primer nucleic acid which is designed to bind to the at least one linking nucleic acid and to bind to the nucleic acid, and/or - at least one primer complementary nucleic acid which is designed to bind to the at least one linking nucleic acid and to elongate the linking nucleic acid by a primer nucleotide sequence by means of an enzymatic reaction. - at least one local heating element which is functionalized with at least one linking nucleic acid and is designed to be in contact with a reaction solution for carrying out a polymerase chain reaction for amplifying a nucleic acid, wherein the at least one local heating element is designed as a nanoparticle and is in particular designed to transfer heat to its surroundings by excitation, or wherein the at least one local heating element is designed as a microheating element and is in particular designed to transfer heat to its surroundings by resistive heating, and - at least one primer nucleic acid which is designed to bind to the at least one linking nucleic acid and to bind to the nucleic acid, and/or - at least one primer complementary nucleic acid which is designed to bind to the at least one linking nucleic acid and to elongate the linking nucleic acid by a primer nucleotide sequence by means of an enzymatic reaction.
An archery string, comprising: a length having a central axis; a first load-bearing path and a second load-bearing path, the first and second load-bearing paths being laterally spaced apart relative to each other along the length, the first load-bearing path extending through a first bundle of entwined strands (322,324) and the second load-bearing path extending through a second bundle of entwined strands (326,328), the first and second bundles, of entwined strands being separate from each other; a binding (316,318) holding the first and second load-bearing paths substantially parallel to each other along at least a portion of the length of the string; wherein a plane through the central axis and the first and second load-bearing paths is configured not to rotate relative to the central axis upon axial elongation or axial contraction of the length; characterized in that the first bundle of entwined strands (322,324) is twisted in a direction of rotation and the second bundle of entwined strands (326,328) is twisted in the same direction of rotation. a length having a central axis; a first load-bearing path and a second load-bearing path, the first and second load-bearing paths being laterally spaced apart relative to each other along the length, the first load-bearing path extending through a first bundle of entwined strands (322,324) and the second load-bearing path extending through a second bundle of entwined strands (326,328), the first and second bundles, of entwined strands being separate from each other; a binding (316,318) holding the first and second load-bearing paths substantially parallel to each other along at least a portion of the length of the string; wherein a plane through the central axis and the first and second load-bearing paths is configured not to rotate relative to the central axis upon axial elongation or axial contraction of the length; characterized in that the first bundle of entwined strands (322,324) is twisted in a direction of rotation and the second bundle of entwined strands (326,328) is twisted in the same direction of rotation.
A lip treatment comprising a taste-masked sunscreen composition wherein the taste-masked sunscreen composition comprises the sunscreens homosalate, octylsalate, oxybenzone, octinoxate and avobenzone, the spider ester sorbeth-2-hexaoleate, and the photostabilizer diethylhexyl 2,6-naphthalate, wherein the sunscreens, the spider ester, and the photostabilizer are in intimate association, and further comprising at least one compound that reduces the appearance of aging selected from the group consisting of coenzyme Q, hyaluronic acid, a hyaluronic acid salt, and spilanthes flower formulation.
A distance detection apparatus comprising: a light output unit configured for outputting a light onto a detection target; a light receiving unit configured for receiving the output light that is reflected by the detection target; a computation unit configured for computing a distance to the detection target by using a time (Δt) until when the light output from the light output unit is received in the light receiving unit; a deblurring optical system configured to be driven based on a detection result of a blurring and through which the output light is transmitted; a detection unit configured for detecting a position of the deblurring optical system; a storage unit configured for storing a predetermined range; a determination unit configured for determining whether the position detected by the detection unit is included in the predetermined range; and a control unit configured for controlling a light output by the light output unit in accordance with a determination result of the determination unit, wherein the predetermined range is determined based on (i) an irradiating light region that the light output from the light output unit irradiates at a position of the detection target, and (ii) a light receiving region at the position of the detection target, light from which being capable of being taken in by the light receiving unit. a light output unit configured for outputting a light onto a detection target; a light receiving unit configured for receiving the output light that is reflected by the detection target; a computation unit configured for computing a distance to the detection target by using a time (Δt) until when the light output from the light output unit is received in the light receiving unit; a deblurring optical system configured to be driven based on a detection result of a blurring and through which the output light is transmitted; a detection unit configured for detecting a position of the deblurring optical system; a storage unit configured for storing a predetermined range; a determination unit configured for determining whether the position detected by the detection unit is included in the predetermined range; and a control unit configured for controlling a light output by the light output unit in accordance with a determination result of the determination unit, wherein the predetermined range is determined based on (i) an irradiating light region that the light output from the light output unit irradiates at a position of the detection target, and (ii) a light receiving region at the position of the detection target, light from which being capable of being taken in by the light receiving unit. (i) an irradiating light region that the light output from the light output unit irradiates at a position of the detection target, and (ii) a light receiving region at the position of the detection target, light from which being capable of being taken in by the light receiving unit.
Hose mat comprising a) a plurality of hose portions, each having a hose longitudinal axis; b) at least one web portion that connects two hose portions; and c) at least one spacer (6; 8; 9) which has a thickness (d Ab) which is oriented perpendicularly to a mat plane and which is larger than an external diameter (d a) of a hose portion, wherein the hose mat in a plane perpendicular to the hose longitudinal axes has the structure of a pearl necklace such that the hose mat, individually or with at least one further hose mat, is capable of being rolled up so as to form a hose mat bundle in such a manner that a bundle longitudinal axis of the hose mat bundle is oriented so as to be parallel to the hose longitudinal axes, characterized in that the hose mat is integrally produced. a) a plurality of hose portions, each having a hose longitudinal axis; b) at least one web portion that connects two hose portions; and c) at least one spacer (6; 8; 9) which has a thickness (d Ab) which is oriented perpendicularly to a mat plane and which is larger than an external diameter (d a) of a hose portion,
A system comprising - a commissioning base station adapted to access a lighting plan, wherein the lighting plan may be empty or comprise one or more lighting plan entries and scenes; - a commissioning device communicatively connected with the commissioning base station, and adapted to determine a position within a bounded area detected by the commissioning device of a sensor device that is coupled with the commissioning base station via a lighting control network, characterized in that - the commissioning device is adapted to interact with the commissioning base station to trigger a reaction of the sensor device by sending a signal to the sensor device or interacting with a lighting control network to trigger the reaction; and - the commissioning base station is adapted to create a corresponding lighting plan entry for the sensor device upon verification of the reaction from the sensor device, to locate the sensor device in a network graph representing the network topology upon occurrence of the reaction of the sensor device, to determine a lighting device in the vicinity of the sensor device in the network graph; and to trigger the lighting device; wherein the commissioning device is adapted to determine a position of the lighting device within a bounded area upon detecting a reaction of the triggered lighting device, and wherein the system is further adapted to create a lighting plan entry for the lighting device and a lighting scene entry associating the sensor device with the lighting device. - a commissioning base station adapted to access a lighting plan, wherein the lighting plan may be empty or comprise one or more lighting plan entries and scenes; - a commissioning device communicatively connected with the commissioning base station, and adapted to determine a position within a bounded area detected by the commissioning device of a sensor device that is coupled with the commissioning base station via a lighting control network, characterized in that - the commissioning device is adapted to interact with the commissioning base station to trigger a reaction of the sensor device by sending a signal to the sensor device or interacting with a lighting control network to trigger the reaction; and - the commissioning base station is adapted to create a corresponding lighting plan entry for the sensor device upon verification of the reaction from the sensor device, to locate the sensor device in a network graph representing the network topology upon occurrence of the reaction of the sensor device, to determine a lighting device in the vicinity of the sensor device in the network graph; and to trigger the lighting device; wherein the commissioning device is adapted to determine a position of the lighting device within a bounded area upon detecting a reaction of the triggered lighting device, and wherein the system is further adapted to create a lighting plan entry for the lighting device and a lighting scene entry associating the sensor device with the lighting device.
An energy harvesting device comprising: a power converter for converting DC power from a photovoltaic device to AC electricity; a wireless transceiver for transmitting and receiving wireless signals; a processor for providing data needed for determining a position of the energy harvesting device in a physical installation, and a signal strength sensor for measuring strength of wireless signals received by the wireless transceiver, characterised in that the processor provides a timestamp that indicates when the energy harvesting device is installed and activated, and Receiver Signal Strength Indicator (RSSI) readings from the signal strength sensor to determine the position of the energy harvesting device. a power converter for converting DC power from a photovoltaic device to AC electricity; a wireless transceiver for transmitting and receiving wireless signals; a processor for providing data needed for determining a position of the energy harvesting device in a physical installation, and a signal strength sensor for measuring strength of wireless signals received by the wireless transceiver, characterised in that the processor provides a timestamp that indicates when the energy harvesting device is installed and activated, and Receiver Signal Strength Indicator (RSSI) readings from the signal strength sensor to determine the position of the energy harvesting device.