mhurhangee/ep-ind-claims huggingface dataset:
Device for bending dough pieces, in particular croissants, comprising: - A first conveyor, for transporting dough pieces (3,5,6,7,8) in a direction of conveyance; - At least a first gate, defining a passage with a first width, smaller than the width of the conveyor, for the dough pieces (3,5,6,7,8); wherein the gate is the point where the bending takes place; - at least two engaging means (12,13), for engaging a dough piece entering the passage and exerting a force on the dough piece with a directional component toward the first conveyor, wherein both engaging means (12,13) are spaced apart from each other, dimensioned such that it engages the dough piece at the two locations, but not in between them, thus leaving a gap in between them, characterised in that - the front of the gate comprises at least one pillar (20,21), rotatable about its length axis, extending with a directional component perpendicular to the first conveyor. - A first conveyor, for transporting dough pieces (3,5,6,7,8) in a direction of conveyance; - At least a first gate, defining a passage with a first width, smaller than the width of the conveyor, for the dough pieces (3,5,6,7,8); wherein the gate is the point where the bending takes place; - at least two engaging means (12,13), for engaging a dough piece entering the passage and exerting a force on the dough piece with a directional component toward the first conveyor, wherein both engaging means (12,13) are spaced apart from each other, dimensioned such that it engages the dough piece at the two locations, but not in between them, thus leaving a gap in between them, - the front of the gate comprises at least one pillar (20,21), rotatable about its length axis, extending with a directional component perpendicular to the first conveyor.
Method for controlling a wind farm, in which control presets for a plurality of wind farm components (14, 15, 16) are made on a superordinate control level (20, 25), said method having the following steps: a. recording sensor data in a sensor station that is assigned to the superordinate control level (20, 25); b. transmitting the sensor data to a wind farm component (14, 15, 16); c. processing the sensor data in a park master module of the wind farm component (14, 15, 16) in order to identify control presets for the plurality of wind farm components (14, 15, 16), characterized by an allocation module, by means of which capacities of the control units of the wind farm components (14, 15, 16) are assigned to the upper control level as park master modules on the basis of the demand of the superordinate control level and/or on the basis of free capacities of the lower control level. a. recording sensor data in a sensor station that is assigned to the superordinate control level (20, 25); b. transmitting the sensor data to a wind farm component (14, 15, 16); c. processing the sensor data in a park master module of the wind farm component (14, 15, 16) in order to identify control presets for the plurality of wind farm components (14, 15, 16),
A semiconductor device, comprising: a substrate; a semiconductor element that is mounted on the substrate; a first lead terminal that is connected to a conductor layer on the substrate via a conductive bonding material; and a sealing portion that seals the substrate and the semiconductor element, wherein the first lead terminal includes: a main body portion that arranged in the sealing portion, a first arch portion (L1b) that is connected to the main body portion and bent so as to project upward, and a first bent portion (L1a) that is connected to the first arch portion (L1b) and bent so as to project downward, characterized in that notches (L1k) recessed in a width direction of the first bent portion are formed on both side surfaces of the first bent portion in the width direction, and wherein the first lead terminal is connected to the conductor layer on the substrate, in a state where, a lower end of the first bent portion (L1a) comes into contact with the conductor layer on the substrate, and the conductive bonding material arranged on a surface of the conductor layer is bonded to a lower surface of the first bent portion (L1a) and flows into the notches (L1k). a substrate; a semiconductor element that is mounted on the substrate; a first lead terminal that is connected to a conductor layer on the substrate via a conductive bonding material; and a sealing portion that seals the substrate and the semiconductor element, wherein the first lead terminal includes: a main body portion that arranged in the sealing portion, a first arch portion (L1b) that is connected to the main body portion and bent so as to project upward, and a first bent portion (L1a) that is connected to the first arch portion (L1b) and bent so as to project downward, characterized in that notches (L1k) recessed in a width direction of the first bent portion are formed on both side surfaces of the first bent portion in the width direction, and wherein the first lead terminal is connected to the conductor layer on the substrate, in a state where, a lower end of the first bent portion (L1a) comes into contact with the conductor layer on the substrate, and the conductive bonding material arranged on a surface of the conductor layer is bonded to a lower surface of the first bent portion (L1a) and flows into the notches (L1k). a main body portion that arranged in the sealing portion, a first arch portion (L1b) that is connected to the main body portion and bent so as to project upward, and a first bent portion (L1a) that is connected to the first arch portion (L1b) and bent so as to project downward, characterized in that notches (L1k) recessed in a width direction of the first bent portion are formed on both side surfaces of the first bent portion in the width direction, and wherein the first lead terminal is connected to the conductor layer on the substrate, in a state where, a lower end of the first bent portion (L1a) comes into contact with the conductor layer on the substrate, and the conductive bonding material arranged on a surface of the conductor layer is bonded to a lower surface of the first bent portion (L1a) and flows into the notches (L1k).
A method of selecting a transport format combination, TFC, by a mobile station to select a first TFC for use in data transmission in a dedicated physical channel from the mobile station to a base station from among a plurality of first TFCs, and to select a second TFC for use in data transmission in an enhanced-channel from the mobile station to the base station from among a plurality of second TFCs, said method comprising: a first step of setting each first TFC state to a supported state, excess-power state or block state, and selecting the first TFC from the supported state or the excess-power state; a second step of calculating a first value related to a remaining power, by subtracting a transmission power of the dedicated physical channel using the selected first TFC, from a maximum power of the mobile station, and selecting the second TFC based on the first value; and a third step of transmitting data in said dedicated physical channel and said enhanced-channel using the selected first TFC and second TFC. a first step of setting each first TFC state to a supported state, excess-power state or block state, and selecting the first TFC from the supported state or the excess-power state; a second step of calculating a first value related to a remaining power, by subtracting a transmission power of the dedicated physical channel using the selected first TFC, from a maximum power of the mobile station, and selecting the second TFC based on the first value; and a third step of transmitting data in said dedicated physical channel and said enhanced-channel using the selected first TFC and second TFC.
Ophthalmic surgical microscope, - having a microscope main objective; - having an observation beam path (105, 205) which passes through the microscope main objective for visualizing an object region; and - having an OCT system (140, 150, 700, 800) for recording images of the object region, wherein the OCT system (140, 150, 700, 800) comprises an OCT scanning beam path (142, 152, 702, 802) which is guided via a scanning mirror arrangement (146, 156, 705, 706, 805) to the object region; characterized in that - an ophthalmoscopy attachment module with an ophthalmoscopy magnifier and a reduction lens is present, said ophthalmoscopy attachment module being able to be pivoted into and out of the observation beam path (105, 205) and the OCT scanning beam path (142, 152), and in that - there is a coupling of OCT system and ophthalmoscopy magnifier in such a way that, when the ophthalmoscopy magnifier is pivoted-in, the optical path length in the reference beam path of the OCT system is increased by a certain, adjustably kept value. - having a microscope main objective; - having an observation beam path (105, 205) which passes through the microscope main objective for visualizing an object region; and - having an OCT system (140, 150, 700, 800) for recording images of the object region, wherein the OCT system (140, 150, 700, 800) comprises an OCT scanning beam path (142, 152, 702, 802) which is guided via a scanning mirror arrangement (146, 156, 705, 706, 805) to the object region; - an ophthalmoscopy attachment module with an ophthalmoscopy magnifier and a reduction lens is present, said ophthalmoscopy attachment module being able to be pivoted into and out of the observation beam path (105, 205) and the OCT scanning beam path (142, 152), and in that - there is a coupling of OCT system and ophthalmoscopy magnifier in such a way that, when the ophthalmoscopy magnifier is pivoted-in, the optical path length in the reference beam path of the OCT system is increased by a certain, adjustably kept value.
Piston for an internal combustion engine, with a piston head and a piston skirt, whereby the piston head has a circumferential ring section as well as a circumferential cooling channel in the region of the ring section, whereby the piston skirt has piston bosses provided with boss bores and arranged via boss connections on the underside (11 a) of the piston head, whereby the piston bosses are interconnected via running surfaces (21,22), whereby there is provided at least one outwardly-closed bore (24a, 24b, 24c, 24d) arranged between a running surface (21,22) and a boss bore, whereby the at least one bore (24a, 24b, 24c, 24d) runs into the cooling channel, and whereby the cooling channel and the at least one bore (24a,24b,24c,24d) contains a cooling medium in the form of a low melting point metal or a low melting point metal alloy, characterised in that four bores (24a,24b,24c,24d) are provided and are arranged between a running surface (21,22) and a boss bore.
Method for producing a sieve basket for receiving medical items to be disinfected or sterilized, in which from a plate blank, preferably a sheet metal blank, - in a first processing step, preferably separating, particularly preferably cutting, such as laser cutting, a base plate or sieve basket base surface comprising the bottom and side walls of the sieve basket in one piece is produced, - in a second processing step taking place prior to or after the first processing step, preferably separating, especially preferably punching, the plate blank, in particular sheet metal blank, or the sieve basket base surface is provided with apertures or holes in order to obtain a perforated initial shape, - in a third processing step taking place after the first and second processing steps (I, II), preferably forming, especially preferably rolling or flattening, a perforated or punched plane is produced, which is divided into a flat inner portion representing the bottom and edge portions representing the side walls, - in a fourth processing step taking place after the third processing step, preferably forming, especially preferably bending, a sieve basket shape with a raw bottom and side walls extending vertically thereto is produced, the raw bottom of which corresponds to the flat inner portion and the side walls correspond to the flat edge portions of the perforated plane, characterized by a fifth processing step which takes place directly or indirectly after the third processing step, preferably forming, especially preferably embossing, which at least partially produces a three-dimensionally structured bottom at least from the flat inner portion. - in a first processing step, preferably separating, particularly preferably cutting, such as laser cutting, a base plate or sieve basket base surface comprising the bottom and side walls of the sieve basket in one piece is produced, - in a second processing step taking place prior to or after the first processing step, preferably separating, especially preferably punching, the plate blank, in particular sheet metal blank, or the sieve basket base surface is provided with apertures or holes in order to obtain a perforated initial shape, - in a third processing step taking place after the first and second processing steps (I, II), preferably forming, especially preferably rolling or flattening, a perforated or punched plane is produced, which is divided into a flat inner portion representing the bottom and edge portions representing the side walls, - in a fourth processing step taking place after the third processing step, preferably forming, especially preferably bending, a sieve basket shape with a raw bottom and side walls extending vertically thereto is produced, the raw bottom of which corresponds to the flat inner portion and the side walls correspond to the flat edge portions of the perforated plane,
A computer-implemented method, comprising: during a compilation of a program, generating correlation data including a control flow representation of the program including one or more basic blocks and a block-to-offset map, wherein the block-to-offset map associates each basic block of a function with a range of offsets and wherein each offset is associated with an instruction that is part of the basic block and is relative to the start of the function; converting the block-to-offset map into a block to relative virtual address map based on a linked image of the program, wherein a relative virtual address is a relative address from a start address of a function associated with a basic block in the image; obtaining sample data from at least one execution of the program, the sample data including a relative virtual address of a hardware instruction and a count, the count indicating a number of times the hardware instruction was executed; matching the relative virtual address of the hardware instruction with at least one basic block of the program that is associated with the relative virtual address of the hardware instruction; updating a block count of the matching basic block with the count; and optimizing the program based on the block count. during a compilation of a program, generating correlation data including a control flow representation of the program including one or more basic blocks and a block-to-offset map, wherein the block-to-offset map associates each basic block of a function with a range of offsets and wherein each offset is associated with an instruction that is part of the basic block and is relative to the start of the function; converting the block-to-offset map into a block to relative virtual address map based on a linked image of the program, wherein a relative virtual address is a relative address from a start address of a function associated with a basic block in the image; obtaining sample data from at least one execution of the program, the sample data including a relative virtual address of a hardware instruction and a count, the count indicating a number of times the hardware instruction was executed; matching the relative virtual address of the hardware instruction with at least one basic block of the program that is associated with the relative virtual address of the hardware instruction; updating a block count of the matching basic block with the count; and optimizing the program based on the block count.
An instrument for grasping an end of a spinal rod and percutaneous insertion of the spinal rod, comprising: a curved housing extending from a proximal end to a distal end and including an interior channel; an immovable lip extending from the distal end; a first slot in a side wall of the distal end; a pivoting lip (110, 173) rotatably coupled to the distal end opposite the immovable lip; and a slidable rod disposed within the interior channel and slidably coupled at a first end to the first slot and a second slot of the pivoting lip such that the slidable rod is translatable within the interior channel to position the pivoting lip relative to the immovable lip to hold a spinal rod therebetween. a curved housing extending from a proximal end to a distal end and including an interior channel; an immovable lip extending from the distal end; a first slot in a side wall of the distal end; a pivoting lip (110, 173) rotatably coupled to the distal end opposite the immovable lip; and a slidable rod disposed within the interior channel and slidably coupled at a first end to the first slot and a second slot of the pivoting lip such that the slidable rod is translatable within the interior channel to position the pivoting lip relative to the immovable lip to hold a spinal rod therebetween.
Method for transferring a useful layer to a carrier substrate, including the successive steps of: a) providing a donor substrate comprising a first surface; b) smoothing the first surface of the donor substrate until a reconstructed surface topology comprising a succession of atomic planes having a principal crystal orientation ( o) forming an angle (α) of disorientation of less than 5° with the normal ( n) to the middle surface (S moy) is obtained; c) forming a first dielectric film on the smoothed first surface of the donor substrate, in such a way that the first dielectric film has a surface that preserves the reconstructed surface topology; d) implanting gaseous species into the donor substrate, through the first dielectric film, so as to form a weakened zone, the useful layer being delimited by the weakened zone and by the first surface of the donor substrate; e) joining the donor substrate to the carrier substrate by direct bonding; f) splitting the donor substrate along the weakened zone so as to expose the useful layer. a) providing a donor substrate comprising a first surface; b) smoothing the first surface of the donor substrate until a reconstructed surface topology comprising a succession of atomic planes having a principal crystal orientation ( o) forming an angle (α) of disorientation of less than 5° with the normal ( n) to the middle surface (S moy) is obtained; c) forming a first dielectric film on the smoothed first surface of the donor substrate, in such a way that the first dielectric film has a surface that preserves the reconstructed surface topology; d) implanting gaseous species into the donor substrate, through the first dielectric film, so as to form a weakened zone, the useful layer being delimited by the weakened zone and by the first surface of the donor substrate; e) joining the donor substrate to the carrier substrate by direct bonding; f) splitting the donor substrate along the weakened zone so as to expose the useful layer.
A medical kit for the preparation of Bone Marrow Concentrate and/or Plasma Concentrate, the medical kit comprising: A) a first container, wherein said first container comprises or is pre-filled with: i) at the least one anticoagulant, ii) a cell selector gel, iii) a first biomaterial, and iv) optionally at the least one blood, bone marrow, cells and/or platelet preservation solution; wherein a collection device is affixable to said first container for collection of blood and/or bone marrow into said first container; B) a second container for the collection of PC and/or BMC from said first container, wherein said second container comprises or is pre-filled with a second biomaterial, and C) optionally a collection device for being affixed to said second container for the collection of PC and/or BMC from said first container into said second container and wherein said first and second biomaterials are hyaluronic acid. A) a first container, wherein said first container comprises or is pre-filled with: i) at the least one anticoagulant, ii) a cell selector gel, iii) a first biomaterial, and iv) optionally at the least one blood, bone marrow, cells and/or platelet preservation solution; wherein a collection device is affixable to said first container for collection of blood and/or bone marrow into said first container; i) at the least one anticoagulant, ii) a cell selector gel, iii) a first biomaterial, and iv) optionally at the least one blood, bone marrow, cells and/or platelet preservation solution; B) a second container for the collection of PC and/or BMC from said first container, wherein said second container comprises or is pre-filled with a second biomaterial, and C) optionally a collection device for being affixed to said second container for the collection of PC and/or BMC from said first container into said second container and wherein said first and second biomaterials are hyaluronic acid.
A process for activating a hydrotreating catalyst which process comprises contacting a hydrotreating catalyst comprising a Group VIB metal oxide and a Group VIII metal oxide with an acid and an organic additive wherein the organic additive is an organic oxygen- or nitrogen-containing compound, with a boiling point in the range of 100- 400°C and a solubility in water of at least 5 grams per liter at 20°C and at atmospheric pressure and is selected from the group of compounds comprising at least two hydroxyl groups and 2-10 carbon atoms per molecule and the ethers or polyethers of these compounds followed by drying under such conditions that at least 50 wt% of the additive is maintained in the catalyst, wherein the hydrotreating catalyst is a used hydrotreating catalyst which has been regenerated or wherein the hydrotreating catalyst is a fresh hydrotreating catalyst.
A method of performing a Hybrid Automatic Repeat Request, HARQ, process, the method comprising: receiving, by a wireless device executing a HARQ process, a first transport block encoded according to a category type of the wireless device and a first modulation coding scheme; decoding, by the HARQ process, the first transport block using a number of soft bits N; receiving, by the wireless device, a second transport block encoded according to the category type and a second modulation coding scheme different from the first modulation coding scheme; and decoding, by the HARQ process, the second transport block using the number of soft bits N. receiving, by a wireless device executing a HARQ process, a first transport block encoded according to a category type of the wireless device and a first modulation coding scheme; decoding, by the HARQ process, the first transport block using a number of soft bits N; receiving, by the wireless device, a second transport block encoded according to the category type and a second modulation coding scheme different from the first modulation coding scheme; and decoding, by the HARQ process, the second transport block using the number of soft bits N.
Water transport line having fibrous material which is suitable for transporting water in a plant watering installation, in particular in the manner of watering pots counter to gravity by utilizing the capillary effect in the fibrous material, wherein the fibrous material is formed by a flexible non-woven fabric, characterized in that the non-woven fabric is at least largely composed of microfilaments (F11, F12, F13, F14, F21, F22, F23, F24) having a mean count of less than 1.0 dTex, and of at least two dissimilar plastics materials (11, 12, 13, 14, 21, 22, 23, 24).