mhurhangee/ep-ind-claims huggingface dataset:
Stalked crop harvesting header comprising multiple harvesting units, wherein each harvesting unit comprises a pair of deck plates defining a channel, a pair of snapping rollers mounted below the deck plates and adapted to grasp and pull stalks downwardly through the channel, a pair of gathering chains provided with cams, the gathering chains extending between a first pair of gears located at either side of the front end of the harvesting unit and a second pair of gears located at a back end of the harvesting unit, the gathering chains being provided for conveying stalks along the channel, wherein each harvesting unit further comprises a pair of stalk guiding means (17, 18) positioned to rotate around axes coinciding with respective axes of the first pair of gears, characterised in that the stalk guiding means each comprise an upper stalk guiding wheel and a lower stalk guiding wheel which are operationally connected to each other for guiding stalks in a movement towards the channel, and in that a cutting element is provided below the lower stalk guiding wheel to cut stalks while being guided by the stalk guiding means.
Item of storage furniture comprising: a storage base comprising two first opposite lateral walls (2a, 2b), a first rear wall, a first upper wall defining the top of the base and an opening arranged at the front of the base, the storage base being configured to be put on the ground on edges of the two first opposite lateral walls (2a, 2b); a movable storage element dimensioned to be received in the opening arranged on the storage base, the storage element being made up of two second opposite lateral walls (7a, 7b), a second rear wall, the second rear wall thus comprising two sides which are connected to the two second lateral walls (7a, 7b) and thus forming a space delimited by the two second lateral walls (7a, 7b) and the second rear wall, the storage element being configured such that edges of the second rear wall and of the two second opposite lateral walls (7a, 7b) rest essentially on the ground and can slide inside the storage base in such a way that the second rear wall is positioned in the direction away from the first rear wall, the space being empty down to the ground. a storage base comprising two first opposite lateral walls (2a, 2b), a first rear wall, a first upper wall defining the top of the base and an opening arranged at the front of the base, the storage base being configured to be put on the ground on edges of the two first opposite lateral walls (2a, 2b); a movable storage element dimensioned to be received in the opening arranged on the storage base, the storage element being made up of two second opposite lateral walls (7a, 7b), a second rear wall, the second rear wall thus comprising two sides which are connected to the two second lateral walls (7a, 7b) and thus forming a space delimited by the two second lateral walls (7a, 7b) and the second rear wall, the storage element being configured such that edges of the second rear wall and of the two second opposite lateral walls (7a, 7b) rest essentially on the ground and can slide inside the storage base in such a way that the second rear wall is positioned in the direction away from the first rear wall, the space being empty down to the ground.
A contact type telescopic guiding and positioning anti-collision protection system, comprising a guide shaft sleeve, a concentrated ball slide sleeve, a sliding shaft, a spring, a baffle, a contact type sensing assembly, a movable contact, a fixing ring and an optical lens, wherein the concentrated ball slide sleeve is mounted on an inner side face of the guide shaft sleeve, the sliding shaft penetrates through the concentrated ball slide sleeve and is connected to the fixing ring, the sliding shaft and the concentrated ball slide sleeve are in rolling friction, the optical lens is mounted on the fixing ring, the baffle is connected to the guide shaft sleeve, the spring is clamped between the baffle and the sliding shaft, the spring has a reset effect, the movable contact is clamped between the sliding shaft and the fixing ring, characterised in that the contact type sensing assembly is fixed to the guide shaft sleeve, and when the anti-collision protection system moves in a forward direction and is in contact with a surface of a sample, the movable contact and the sliding shaft synchronously move in a reverse direction till the movable contact is in contact with the contact type sensing assembly to trigger a contact signal.
A circuit for modifying a behavior of an LED driver in accordance with a determined type of a power supply driving the LED driver, the circuit comprising: an analyzer for determining the type of the power supply based at least in part on a power signal received from the power supply, wherein the type of the power supply DC power supply, a magnetic transformer power supply, or an electronic transformer power supply; and a generator for generating a control signal based at least in part on the determined type of the power supply, for controlling the behavior of the LED driver. an analyzer for determining the type of the power supply based at least in part on a power signal received from the power supply, wherein the type of the power supply DC power supply, a magnetic transformer power supply, or an electronic transformer power supply; and a generator for generating a control signal based at least in part on the determined type of the power supply, for controlling the behavior of the LED driver.
A process of preparing of the crystallized maltitol powder according to any one of claims 1 to 3, characterized in that it comprises: a) feeding a zig-zag separator having a channel composed of several stages with a 120° slope with a crystallized maltitol powder having, for an arithmetic mean diameter comprised between 180 and 230 μm, a particle-size distribution by volume of: - more than 20% particles of less than 200 μm in size, - more than 7% particles of less than 100 μm in size, - more than 2% particles of less than 40 μm in size, b) controlling the flow rate of primary air so as to recover a fraction of crystallized maltitol powder having a particle-size distribution by volume of: - less than 20%, preferably less than 15%, more preferably less than 10% and even more preferably less than 5% particles of less than 200 μm in size, - less than 6% particles of less than 100 μm in size, - less than 2% particles of less than 40 μm in size. a) feeding a zig-zag separator having a channel composed of several stages with a 120° slope with a crystallized maltitol powder having, for an arithmetic mean diameter comprised between 180 and 230 μm, a particle-size distribution by volume of: - more than 20% particles of less than 200 μm in size, - more than 7% particles of less than 100 μm in size, - more than 2% particles of less than 40 μm in size, - more than 20% particles of less than 200 μm in size, - more than 7% particles of less than 100 μm in size, - more than 2% particles of less than 40 μm in size, b) controlling the flow rate of primary air so as to recover a fraction of crystallized maltitol powder having a particle-size distribution by volume of: - less than 20%, preferably less than 15%, more preferably less than 10% and even more preferably less than 5% particles of less than 200 μm in size, - less than 6% particles of less than 100 μm in size, - less than 2% particles of less than 40 μm in size. - less than 20%, preferably less than 15%, more preferably less than 10% and even more preferably less than 5% particles of less than 200 μm in size, - less than 6% particles of less than 100 μm in size, - less than 2% particles of less than 40 μm in size.
An additive manufacturing machine for building objects by layerwise melting of powder material, the machine comprising a build chamber (101, 201) containing a build platform (102, 202), a powder dispenser (108, 121, 208, 221) for depositing the powder material in layers across the build platform (102, 202), a high energy beam for selectively melting powder material in each layer, a recirculation loop (120, 220) for recirculating powder from the build chamber (101, 201) to the powder dispenser (108, 121, 208, 221) and characterised by a control device (119, 122, 123, 124, 125, 130; 219, 222, 223, 224, 225, 230, 237, 238) for removing micro build particles from the powder material to control a particle size distribution of powder material delivered to the powder dispenser (108, 121, 208, 221), the micro build particles having a size below an upper particle size limit specified for the build and having a particle size less than 10 micrometers, and the recirculation loop (120, 220) is in gaseous communication with the build chamber (101, 201) such that the build chamber (101, 201) and the recirculation loop (120, 220) share a common inert gas atmosphere.
A pharmaceutical composition comprising 7-(4,7-diazaspiro[2.5]octan-7-yl)-2-(2,8-dimethylimidazo[1,2-b]pyridazin-6-yl)pyrido[1,2-a]pyrimidin-4-one or a pharmaceutically acceptable salt thereo wherein the composition is an oral aqueous solution or a dry powder suitable for constitution of an oral aqueous solution, wherein the oral aqueous solution has a pH of less than pH4.
A computer-implemented method operating in a computing system for malware scanning and detection, the method comprising: receiving, at a computing device of the computer system, a malware scan request comprising one or more parameters, the one or more parameters including target uniform resource (URIs), uniform resource locators (URLs) and/or uniform resource names (URNs) used to identify a web page upon which malware scanning is to be performed, and a type and version of a browser; launching, in the computing device, a virtual machine; launching, in the virtual machine of the computing device, an internet browser of the type and version; requesting, by the internet browser, data from the web page; and performing analysis on the web page using one or more analysis tools, wherein performing the analysis includes: performing monitoring and recording of system application programming interface calls, creating software objects associated with the web page, performing antivirus scanning of the software objects, de-obfuscating JavaScript associated with the software objects, and correlating data associated with the performed analysis to determine if the web page is a malicious web page. receiving, at a computing device of the computer system, a malware scan request comprising one or more parameters, the one or more parameters including target uniform resource (URIs), uniform resource locators (URLs) and/or uniform resource names (URNs) used to identify a web page upon which malware scanning is to be performed, and a type and version of a browser; launching, in the computing device, a virtual machine; performing monitoring and recording of system application programming interface calls, creating software objects associated with the web page, performing antivirus scanning of the software objects, de-obfuscating JavaScript associated with the software objects, and correlating data associated with the performed analysis to determine if the web page is a malicious web page.
A method for providing a mapping from apparent colour to actual colour for an image capture device including: capturing an image of a reference colour chart having a plurality of colour patches using the image capture device, wherein each colour patch has an associated reference colour, measuring, using a processor, apparent colour in an input colour space of the plurality of colour patches in the captured image, selecting, using a processor, a plurality of control points representing different hue values within a circular hue space that are evenly spaced around the circular hue space, determining, using a processor, an angular offset for each of the control points such that a distance between the apparent colour transformed from the input colour space to the circular hue space and the associated reference colour in the circular hue space for each of the colour patches is minimised, the angular offset representing a hue correction, wherein interpolation of the angular offsets for two or more of the control points nearest to a hue value of the apparent colour provides the mapping for the image capture device. capturing an image of a reference colour chart having a plurality of colour patches using the image capture device, wherein each colour patch has an associated reference colour, measuring, using a processor, apparent colour in an input colour space of the plurality of colour patches in the captured image, selecting, using a processor, a plurality of control points representing different hue values within a circular hue space that are evenly spaced around the circular hue space, determining, using a processor, an angular offset for each of the control points such that a distance between the apparent colour transformed from the input colour space to the circular hue space and the associated reference colour in the circular hue space for each of the colour patches is minimised, the angular offset representing a hue correction, wherein interpolation of the angular offsets for two or more of the control points nearest to a hue value of the apparent colour provides the mapping for the image capture device.
Input device for an electrical device with a base which can be attached to the device and an input actuator which can be moved in relation to the base, wherein the base has at least one light source for producing a measurement beam and at least one sensor for detecting the reflected measurement beam, and the input actuator comprises a plurality of reflection bodies for deflecting the measurement beam onto the sensor, wherein each reflection body has an entry area for entry of the measurement beam into the reflection body, at least one reflection surface (44, 45) for reflecting the measurement beam and an outlet area for outlet of the measurement beam from the reflection body, characterised in that a plurality of reflection bodies is integrated in a bracket in one piece, so that a reflection ring is embodied as an injection-moulded part, and wherein the input actuator is ring-shaped.
Medical apparatus comprising: a medical fluid container support device, affixed to a weight scale coupled to a medical fluid replacement device, the container support device comprising: an attachment member for coupling the container support device to the weight scale; characterized in that, a joint body is attached to the attachment member and configured to rotate about a vertical axis thereof, the joint body having a first joint member configured to couple to the attachment member in rotatable relation thereto and a second joint member configured to couple to the first joint member and move along a first arc A 1; a support body movably coupled to the second joint member and configured to move along a second arc A 2, wherein the first arc A 1 has an axis of rotation that is perpendicular to an axis of rotation of the second arc A 2; and at least two container supports extending from the support body. a medical fluid container support device, affixed to a weight scale coupled to a medical fluid replacement device, the container support device comprising: an attachment member for coupling the container support device to the weight scale; characterized in that, a joint body is attached to the attachment member and configured to rotate about a vertical axis thereof, the joint body having a first joint member configured to couple to the attachment member in rotatable relation thereto and a second joint member configured to couple to the first joint member and move along a first arc A 1; a support body movably coupled to the second joint member and configured to move along a second arc A 2, wherein the first arc A 1 has an axis of rotation that is perpendicular to an axis of rotation of the second arc A 2; and at least two container supports extending from the support body. an attachment member for coupling the container support device to the weight scale; characterized in that, a joint body is attached to the attachment member and configured to rotate about a vertical axis thereof, the joint body having a first joint member configured to couple to the attachment member in rotatable relation thereto and a second joint member configured to couple to the first joint member and move along a first arc A 1; a support body movably coupled to the second joint member and configured to move along a second arc A 2, wherein the first arc A 1 has an axis of rotation that is perpendicular to an axis of rotation of the second arc A 2; and at least two container supports extending from the support body.
A method of printing a transferable semiconductor element, said method comprising: a. providing an elastomeric stamp having a transfer surface with said semiconductor element supported thereon, wherein said transfer surface comprises a three-dimensional pattern of relief features that at least partially contacts said semiconductor element; b. providing a substrate having a receiving surface; c. establishing conformal contact between said semiconductor element supported on said elastomeric stamp transfer surface and said receiving surface, thereby contacting at least a portion of said semiconductor element with said receiving surface; d. offsetting said elastomeric stamp a horizontal distance relative to said receiving surface, thereby generating a mechanical deformation in at least a portion of said pattern of relief features without separating said semiconductor element from said transfer surface or said receiving surface; and e. separating said stamp from said semiconductor element, thereby printing said semiconductor element to said receiving surface. a. providing an elastomeric stamp having a transfer surface with said semiconductor element supported thereon, wherein said transfer surface comprises a three-dimensional pattern of relief features that at least partially contacts said semiconductor element; b. providing a substrate having a receiving surface; c. establishing conformal contact between said semiconductor element supported on said elastomeric stamp transfer surface and said receiving surface, thereby contacting at least a portion of said semiconductor element with said receiving surface; d. offsetting said elastomeric stamp a horizontal distance relative to said receiving surface, thereby generating a mechanical deformation in at least a portion of said pattern of relief features without separating said semiconductor element from said transfer surface or said receiving surface; and e. separating said stamp from said semiconductor element, thereby printing said semiconductor element to said receiving surface.
Method for installing an attachment part on a concrete or masonry base, which base is provided with a bore, in which - a hardenable grout is arranged within the bore, - a levelling screw, which has an attachment part support for supporting the attachment part, a shank, which is connected to the attachment part support, and at least one first screw thread, which is arranged on the shank, is provided, - the shank is screwingly inserted into the bore and into the hardenable grout that is arranged within the bore, wherein the at least one first screw thread taps the base as the shank is screwingly inserted into the bore, and - the attachment part is placed on the attachment part support, characterized in that - following the insertion of the shank into the bore and into the hardenable grout that is arranged within the bore, the levelling screw is partially unscrewed out of the bore, thereby raising the attachment part support away from the base. - a hardenable grout is arranged within the bore, - a levelling screw, which has an attachment part support for supporting the attachment part, a shank, which is connected to the attachment part support, and at least one first screw thread, which is arranged on the shank, is provided, - the shank is screwingly inserted into the bore and into the hardenable grout that is arranged within the bore, wherein the at least one first screw thread taps the base as the shank is screwingly inserted into the bore, and - the attachment part is placed on the attachment part support, characterized in that - following the insertion of the shank into the bore and into the hardenable grout that is arranged within the bore, the levelling screw is partially unscrewed out of the bore, thereby raising the attachment part support away from the base.
An apparatus for wireless communication, comprising: a transceiver; a memory configured to store instructions; a per-stream recursive demapping, PSRD, demodulator communicatively coupled with the memory and the transceiver that demodulates signals received via the transceiver at least in part by generating log likelihood ratios, LLRs, by searching over a constellation corresponding to a search space; and one or more processors communicatively coupled with the demodulator, the memory, and the transceiver, wherein the one or more processors are configured to: receive, from a base station, an indication of a search space size for the PSRD demodulator to use in generating the LLRs; receive, from the base station, one or more signals within the search space; and perform, using the PSRD demodulator, a demodulation of the one or more signals based on generating the LLRs by searching, based on the search space size, over the constellation corresponding to the search space. a transceiver; a memory configured to store instructions; a per-stream recursive demapping, PSRD, demodulator communicatively coupled with the memory and the transceiver that demodulates signals received via the transceiver at least in part by generating log likelihood ratios, LLRs, by searching over a constellation corresponding to a search space; and one or more processors communicatively coupled with the demodulator, the memory, and the transceiver, wherein the one or more processors are configured to: receive, from a base station, an indication of a search space size for the PSRD demodulator to use in generating the LLRs; receive, from the base station, one or more signals within the search space; and perform, using the PSRD demodulator, a demodulation of the one or more signals based on generating the LLRs by searching, based on the search space size, over the constellation corresponding to the search space. receive, from a base station, an indication of a search space size for the PSRD demodulator to use in generating the LLRs; receive, from the base station, one or more signals within the search space; and perform, using the PSRD demodulator, a demodulation of the one or more signals based on generating the LLRs by searching, based on the search space size, over the constellation corresponding to the search space.