mhurhangee/ep-ind-claims huggingface dataset:
A carton blank made of a semi-rigid plastic-coated paperboard material for forming a carton, and comprising a row of first, second, third and fourth substantially four-edged panels (a-d), each comprising a side wall part (4,6,8,10), a top closure obturating part (24,26,28,30), a bottom obturating part (14,16,18,20) and a top sealing fin part, wherein the top closure obturating part of one of said panels (c) includes a through hole or a loop of weakness for a pour spout fitment, wherein the one of said panels (c) comprises a substantially horizontal first line of weakness between the top closure obturating part and the top sealing fin part, which first line of weakness forms an uppermost boundary of the top closure obturating part, and wherein the one of said panels (c) comprises a substantially horizontal second line of weakness separating the front side wall part and the bottom obturating part, which second line of weakness forms a lowermost boundary of the front side wall part, characterised in that the one of said panels (c)is free from any line of weakness extending inwardly from lateral edge zones of said one of said panels (c) from the lowermost boundary of the side wall part to the uppermost boundary of the top closure obturating part, and in that in this one of said panels (c) the top closure obturating part has a boundary with the front side wall part that is free from any line of weakness.
Bone implant for stabilizing fractured or non-fractured bones, said implant comprising an implant body, preferably a cylindrical body, extending along a longitudinal axis from a front side to an end side and having an implant width extending perpendicularly to the longitudinal axis, wherein a length of the implant body along the longitudinal axis is at least 5 times the implant width, wherein the implant body has an outer surface, being at least divided into a first surface and a second surface, wherein the first surface consists of an anchorage area which extends at least partially over the outer surface, preferably maximum over half of the outer surface wherein the anchorage area comprises surface structures in form of a thread or ring shaped grooves and wherein the second surface of the implant comprises a first set of holes distributed in rows along the longitudinal axis, wherein the hole axis of the first set of holes is arranged substantially perpendicular to the longitudinal axis, wherein a first hole of a first row and a first hole of a second neighbouring row have a different distance to the front side, wherein the difference in the distance is equal to half the distance of two neighbouring holes in a row, wherein the outer surface comprises a third surface being arranged opposite of the anchorage surface having an at least partially conical shape such that it enables an easier introduction into the bone, wherein the implant comprises a bore extending along the longitudinal axis or parallel to the longitudinal axis having one opening at the end side, characterised in that the holes of the first set of holes are located in an area from 180° to 270° around the longitudinal axis in the second surface, such that fluid is directable through the bone implant only to a part of the bone where the fluid is needed, said part being located in an area from 180° to 270° around the longitudinal axis.
A rolling equipment, comprising: two coiler furnaces, a plurality of mill stands provided between the two coiler furnaces, the plurality of mill stands being for reverse rolling; characterised in that the rolling equipment further comprises: an induction heater (28, 29) provided between the plurality of mill stands, the induction heater (28, 29) implementing a heated temperature increase in a designated reverse rolling or in each reverse rolling by the induction heater being configured to implement the heated temperature increase in a hot strip longitudinal direction and width direction. two coiler furnaces, a plurality of mill stands provided between the two coiler furnaces, the plurality of mill stands being for reverse rolling; characterised in that the rolling equipment further comprises: an induction heater (28, 29) provided between the plurality of mill stands, the induction heater (28, 29) implementing a heated temperature increase in a designated reverse rolling or in each reverse rolling by the induction heater being configured to implement the heated temperature increase in a hot strip longitudinal direction and width direction.
A fixing device for fixing a developing agent image to a recording sheet by electrostatically spraying a charged fixing solution toward the developing agent image on the sheet, the fixing device comprising: a container portion configured to store therein the fixing solution; a plurality of nozzles in communication with the container portion and configured to spray the fixing solution toward the developing agent image; and a potential difference generating portion (774, 772) configured to generate a potential difference between the fixing solution stored in the plurality of nozzles and the recording sheet conveyed at a position separated from the plurality of nozzles; characterised by a pressure applying portion configured to apply pressure to the fixing solution in the container portion; a temperature sensor configured to detect a temperature around the fixing device or a temperature of the fixing solution; and a controller configured to determine a value of a pressure to be applied to the fixing solution on a basis of the temperature detected by the temperature sensor. a container portion configured to store therein the fixing solution; a plurality of nozzles in communication with the container portion and configured to spray the fixing solution toward the developing agent image; and a potential difference generating portion (774, 772) configured to generate a potential difference between the fixing solution stored in the plurality of nozzles and the recording sheet conveyed at a position separated from the plurality of nozzles; characterised by a pressure applying portion configured to apply pressure to the fixing solution in the container portion; a temperature sensor configured to detect a temperature around the fixing device or a temperature of the fixing solution; and a controller configured to determine a value of a pressure to be applied to the fixing solution on a basis of the temperature detected by the temperature sensor.
A phase current detection apparatus which comprises a shunt resistor inserted in a DC link for detecting a motor current, current detection circuit, and a micro-computer receiving a detection current output as an input, and which is provided in a motor driving apparatus in which outputs from PWM inverter are supplied to the motor so as to drive the motor, characterised in that signal ground of the current detection circuit and ground of the micro-computer are connected to one another at one side of the shunt resistor.
A continuous glucose monitoring terminal, comprising a portable host (20, 40) and probe assembly wherein the probe assembly includes two glucolase micro electrode needles, a micro processor, and two electrode terminals; the host (20, 40) includes a signal sampling unit (21, 41), a signal processing unit (22, 42), a data storage unit (23, 43), and a first data communication unit (24, 44); wherein the signal sampling unit (21, 41) is configured to continuously acquire voltage sampling signals from the two electrode terminals of the probe assembly; the signal processing unit (22, 42) is configured to continuously generate detection data based on the voltage sampling signals, and store the detection data into the data storage unit (23, 43); the first data communication unit (24, 44) is configured to wirelessly send the detection data at regular time intervals to a mobile terminal, the host (20, 40) is a reusable apparatus, and is configured to be fixed to the human body by means of pasting or binding; the probe assembly is a disposable product, and the probe assembly is configured to be assembled to the host (20, 40) during operation of the continuous glucose monitoring terminal and to be disassembled from the host (20, 40) afterwards.
A power supply for a radio frequency, RF, power amplifier that amplifies an RF input signal into an RF output signal, the power supply comprising: a first power converter configured to convert an input voltage (VBAT) to the power supply into a first supply voltage of the RF power amplifier; and a second power converter configured to receive the input voltage (VBAT) and the first supply voltage and to selectively convert either the input voltage (VBAT) or the first supply voltage into at least a portion of a second supply voltage of the RF power amplifier. a first power converter configured to convert an input voltage (VBAT) to the power supply into a first supply voltage of the RF power amplifier; and a second power converter configured to receive the input voltage (VBAT) and the first supply voltage and to selectively convert either the input voltage (VBAT) or the first supply voltage into at least a portion of a second supply voltage of the RF power amplifier.
A method of configuring a programmable integrated circuit device with a user logic design, said method comprising the steps of: analyzing said user logic design to identify timing requirements of parallel paths (101, 102) within said user logic design; determining latency requirements along said parallel paths (101, 102) within said user logic design; routing said user logic design based on availability of storage elements (103, 121, 123; 612, 622, 632, 642, 613) for incorporation into said parallel paths (101, 102) to satisfy said latency requirements along said parallel paths (101, 102); retiming said user logic design following said routing by incorporating at least some of said storage elements (103, 121, 123; 612, 622, 632, 642, 613) within said parallel paths (101, 102) to balance timings along said parallel paths (101, 102); configuring the programmable integrated circuit device with the routed and retimed user logic design. analyzing said user logic design to identify timing requirements of parallel paths (101, 102) within said user logic design; determining latency requirements along said parallel paths (101, 102) within said user logic design; routing said user logic design based on availability of storage elements (103, 121, 123; 612, 622, 632, 642, 613) for incorporation into said parallel paths (101, 102) to satisfy said latency requirements along said parallel paths (101, 102); retiming said user logic design following said routing by incorporating at least some of said storage elements (103, 121, 123; 612, 622, 632, 642, 613) within said parallel paths (101, 102) to balance timings along said parallel paths (101, 102);
Tool for sheathing an elongate product available by the meter, particularly in the form of a fiber or fiber bundle, having at least one thermoplastic layer, with a wetting unit comprising at least one contact zone that can be filled with a flowable thermoplastic, through which the elongate product can be guided for purposes of wetting with the thermoplastic in form of a continuously progressing strand, wherein at least one first infeed area for the elongate product and at least one second infeed area for the thermoplastic open into the at least one contact zone, and the contact zone has at least one outlet area, and wherein a means is provided along the second infeed area through which the thermoplastic can be introduced under pressure into the contact zone in the direction of the outlet area, characterized in that in the contact zone the thermoplastic pulls the elongate product fed into the contact zone along through the outlet area solely by the frictional force between the thermoplastic and the elongate product, and that the first infeed area (Zl) and a unit holding a store of the elongate product are designed and arranged in such manner that the elongate product can be fed into the first infeed area in loose manner, that is to say without the application of force.
A dishwasher comprising: a wash tub; a spray nozzle (331, 341) configured to spray wash water inside the wash tub; a reflecting module movable inside the wash tub and configured to reflect the wash water sprayed by the spray nozzle (331, 341); and a control unit configured to control a spray pressure at which the wash water is sprayed according to a position of the reflecting module characterized by a sump configured to retain the wash water; and a circulation pump configured to transfer the wash water retained in the sump to the spray nozzle (331, 341), wherein a detection unit is provided, configured to detect a position of the reflecting module, wherein the control unit is adapted to determine the spray pressure of the wash water according to the distance between the spray nozzle (331, 341) and the reflecting module and to control a transfer force of the circulating pump according to the determined spray pressure. a wash tub; a spray nozzle (331, 341) configured to spray wash water inside the wash tub; a reflecting module movable inside the wash tub and configured to reflect the wash water sprayed by the spray nozzle (331, 341); and a control unit configured to control a spray pressure at which the wash water is sprayed according to a position of the reflecting module characterized by a sump configured to retain the wash water; and a circulation pump configured to transfer the wash water retained in the sump to the spray nozzle (331, 341), wherein a detection unit is provided, configured to detect a position of the reflecting module, wherein the control unit is adapted to determine the spray pressure of the wash water according to the distance between the spray nozzle (331, 341) and the reflecting module and to control a transfer force of the circulating pump according to the determined spray pressure.
An angling rig which comprises a core, wherein the core comprises a negatively buoyant, elongate, flexible concatenated member of metal wire, and characterised by, surrounding the core, a coaxial sheath of braided synthetic polymer filamentary material.
Use of a free radical initiator composition in melt processing of polyethylene materials comprising at least one ethylene copolymer with a density ≥ 850 kg/m 3 and < 905 kg/m 3 for the reduction of gels in polyethylene materials characterized in that the free radical initiator composition is added in quantities ≥ 0.001 wt% and ≤ 0.029 wt% compared to the total weight of the polyethylene material, wherein further the melt processing is performed in a melt processing unit, wherein the free radical initiator composition is dosed to the melt processing unit in a stage where the polyethylene material is in a molten condition and melt processing is conducted at a temperature of ≥ 160 °C and ≤ 240 °C, the density being determined according to ISO 1183-1, method A.
A multistage shelf type cultivation apparatus for cultivating plug seedlings of a Solanaceae plant equipped with a lighting device, the cultivation apparatus having a shelf, the shelf having an inner side surface, the inner side surface of the shelf being a reflector, wherein the lighting device has a light source that constitutes a spectrum showing a wavelength range A of 400 nm or more and less than 500 nm and a wavelength range B of 500 nm or more and less than 700 nm; characterized in that the photosynthetic photon flux density in the wavelength range A is 100 μmol/m 2 /sec or more; further characterized in that, when the total of the photosynthetic photon flux density in the wavelength range A and the photosynthetic photon flux density in the wavelength range B is 100%, the photosynthetic photon flux density in the wavelength range A is 81% or more and less than 99%. the cultivation apparatus having a shelf, the shelf having an inner side surface, the inner side surface of the shelf being a reflector, wherein the lighting device has a light source that constitutes a spectrum showing a wavelength range A of 400 nm or more and less than 500 nm and a wavelength range B of 500 nm or more and less than 700 nm; characterized in that the photosynthetic photon flux density in the wavelength range A is 100 μmol/m 2 /sec or more; further characterized in that, when the total of the photosynthetic photon flux density in the wavelength range A and the photosynthetic photon flux density in the wavelength range B is 100%, the photosynthetic photon flux density in the wavelength range A is 81% or more and less than 99%.
A 3-dimensional, 3-D, magnetic core device, the device comprising: a substrate; a first magnetic shell formed on the substrate; a first group of conductive traces embedded in a first insulator layer formed on the first magnetic shell; a magnetic core plane formed on the first insulator layer; a second group of conductive traces embedded in a second insulator layer formed on the magnetic core plane; a second magnetic shell formed on the second insulator layer, wherein the first and second group of conductive traces are conductively coupled by using conductive vias; a third group of conductive traces embedded in the second insulator layer formed on the magnetic core plane; and a fourth group of conductive traces embedded in the second insulator layer formed on the magnetic core plane, wherein the first and second group of conductive traces and the conductive vias form a primary coil of a transformer, and wherein the third and fourth group of conductive traces form a secondary coil of the transformer, wherein counts of turns of the primary and secondary coils are different, and wherein the primary and secondary coils are formed side-by-side, and wherein the third and fourth group of conductive traces of the secondary coil are formed in a same plane so that magnetic fields generated by the primary and secondary coils are substantially perpendicular to one another. a substrate; a first magnetic shell formed on the substrate; a first group of conductive traces embedded in a first insulator layer formed on the first magnetic shell; a magnetic core plane formed on the first insulator layer; a second group of conductive traces embedded in a second insulator layer formed on the magnetic core plane; a second magnetic shell formed on the second insulator layer, wherein the first and second group of conductive traces are conductively coupled by using conductive vias; a third group of conductive traces embedded in the second insulator layer formed on the magnetic core plane; and a fourth group of conductive traces embedded in the second insulator layer formed on the magnetic core plane, wherein the first and second group of conductive traces and the conductive vias form a primary coil of a transformer, and wherein the third and fourth group of conductive traces form a secondary coil of the transformer, wherein counts of turns of the primary and secondary coils are different, and wherein the primary and secondary coils are formed side-by-side, and wherein the third and fourth group of conductive traces of the secondary coil are formed in a same plane so that magnetic fields generated by the primary and secondary coils are substantially perpendicular to one another.
A method, comprising: at a server system: receiving a video stream from a remote video camera, wherein the video stream comprises a plurality of video frames; processing the video stream to identify events; selecting a plurality of frames from the video stream, the plurality of frames being associated with a predetermined time interval (1802, 1804), wherein selecting the plurality of frames includes extracting the plurality of frames from the received video stream at a predefined average rate and wherein (i) a first set of frames that are proximate to an event identified in the time interval and (ii) a second set of frames that are not proximate to the event identified in the time interval are extracted, wherein frames in the first set are extracted at a higher rate than the predefined average rate and frames in the second set are extracted at a lower rate than the predefined average rate to maintain the predefined average rate for the plurality of frames; encoding the selected plurality of frames as a compressed video segment (1852, 1854) associated with the time interval; receiving a request from an application running on a client device to review video from the remote video camera for the time interval; and in response to the request, transmitting the video segment (1852, 1854) to the client device for viewing in the application. receiving a video stream from a remote video camera, wherein the video stream comprises a plurality of video frames; processing the video stream to identify events; selecting a plurality of frames from the video stream, the plurality of frames being associated with a predetermined time interval (1802, 1804), wherein selecting the plurality of frames includes extracting the plurality of frames from the received video stream at a predefined average rate and wherein (i) a first set of frames that are proximate to an event identified in the time interval and (ii) a second set of frames that are not proximate to the event identified in the time interval are extracted, wherein frames in the first set are extracted at a higher rate than the predefined average rate and frames in the second set are extracted at a lower rate than the predefined average rate to maintain the predefined average rate for the plurality of frames; encoding the selected plurality of frames as a compressed video segment (1852, 1854) associated with the time interval; receiving a request from an application running on a client device to review video from the remote video camera for the time interval; and in response to the request, transmitting the video segment (1852, 1854) to the client device for viewing in the application.