mhurhangee/ep-ind-claims huggingface dataset:
An image forming apparatus, comprising: an image obtaining unit (17, 20) configured to obtain an image (101, 102) of an identification card; a printing unit; a utilization purpose entry receiving unit (30, 20) configured to receive an entry of a utilization purpose of a document (100A to 100D) to be printed by the printing unit; and a control unit configured to overlap a text (110A to 110D) indicating the utilization purpose received by the utilization purpose entry receiving unit (30, 20), with the image (101, 102) of the identification card, and to instruct the printing unit to print the overlapped text (110A to 110D) and the image (101, 102) of the identification card; characterized by further comprising a judging unit configured to judge whether a first image obtained by the image obtaining unit (12, 20) is the image of the identification card; wherein in a case in which the judging unit judges that the first image is the image of the identification card, the utilization purpose entry receiving unit (30, 20) displays a plurality of predertermined options of the utilization purpose of the document to be printed by the printing unit, and receives the entry of the utilization purpose by receiving a selection of one option among the plurality of displayed options. an image obtaining unit (17, 20) configured to obtain an image (101, 102) of an identification card; a printing unit; a utilization purpose entry receiving unit (30, 20) configured to receive an entry of a utilization purpose of a document (100A to 100D) to be printed by the printing unit; and a control unit configured to overlap a text (110A to 110D) indicating the utilization purpose received by the utilization purpose entry receiving unit (30, 20), with the image (101, 102) of the identification card, and to instruct the printing unit to print the overlapped text (110A to 110D) and the image (101, 102) of the identification card; characterized by further comprising a judging unit configured to judge whether a first image obtained by the image obtaining unit (12, 20) is the image of the identification card; wherein in a case in which the judging unit judges that the first image is the image of the identification card, the utilization purpose entry receiving unit (30, 20) displays a plurality of predertermined options of the utilization purpose of the document to be printed by the printing unit, and receives the entry of the utilization purpose by receiving a selection of one option among the plurality of displayed options.
A radar system, comprising: a transmitter for transmitting a radio frequency signal or a radar signal; a plurality of receivers (114a, 114b), each receiver (114a, 114b) receiving a plurality of reflected signals (116a-116d) created by a plurality of targets (118a, 118b) reflecting the RF signal or radar signal, the reflected signals (116a-116d) comprising background noise, and wherein each of the receivers (114a, 114b) are separated by a predetermined distance; a multiple input de-noiser configured to de-noise input signals from the plurality of receivers (114a, 114b) and to determine a time difference of arrival of the reflected signals (116a-116d) between the plurality of receivers (114a, 114b); and a detection and angular resolution module configured to determine an angular resolution between the plurality of targets (118a, 118b) using the time difference of arrival of the reflected signals (116a-116d) between the plurality of receivers (114a, 114b), wherein neural network reservoir weights of a second neural network reservoir of a plurality of neural network reservoirs of the multiple input de-noiser are adjusted by a first neural network reservoir of the plurality of neural network reservoirs of the multiple input de-noiser to enhance the detection of the reflected signals (116a-116d) and determine the time difference of arrival of the reflected signals (116a-116d) between the plurality of receivers (114a, 114b). a transmitter for transmitting a radio frequency signal or a radar signal; a plurality of receivers (114a, 114b), each receiver (114a, 114b) receiving a plurality of reflected signals (116a-116d) created by a plurality of targets (118a, 118b) reflecting the RF signal or radar signal, the reflected signals (116a-116d) comprising background noise, and wherein each of the receivers (114a, 114b) are separated by a predetermined distance; a multiple input de-noiser configured to de-noise input signals from the plurality of receivers (114a, 114b) and to determine a time difference of arrival of the reflected signals (116a-116d) between the plurality of receivers (114a, 114b); and a detection and angular resolution module configured to determine an angular resolution between the plurality of targets (118a, 118b) using the time difference of arrival of the reflected signals (116a-116d) between the plurality of receivers (114a, 114b), wherein neural network reservoir weights of a second neural network reservoir of a plurality of neural network reservoirs of the multiple input de-noiser are adjusted by a first neural network reservoir of the plurality of neural network reservoirs of the multiple input de-noiser to enhance the detection of the reflected signals (116a-116d) and determine the time difference of arrival of the reflected signals (116a-116d) between the plurality of receivers (114a, 114b).
A high pressure diesel fuel pump comprising a drivetrain assembly within a drivetrain housing and a pumping assembly, the drivetrain assembly comprising a cam mounted in a cambox, a tappet member arranged for reciprocal movement with the cam within a tappet chamber, and a spring mounted in a spring chamber acting on an upper surface of the tappet member, the pumping assembly comprising a pump housing and a plunger mounted within a bore formed in the pump housing for reciprocal movement along a pumping axis (A-A') under the influence of the reciprocating tappet member, wherein the drivetrain housing comprises a vent arranged to connect said spring chamber and/or said tappet chamber with the cambox and a low pressure inlet for delivery of fluid to the drivetrain assembly, characterised in that the low pressure inlet is arranged to feed into the spring chamber and wherein the inlet is located within 90° rotation of the vent around the pumping axis (A-A'), wherein the inlet comprises an internal opening into the spring chamber and, wherein the internal opening is disposed towards a bottom end of the spring chamber. wherein the inlet comprises an internal opening into the spring chamber and, wherein the internal opening is disposed towards a bottom end of the spring chamber.
A pneumatic tire comprising, in a tread surface, a compound groove partitioned into a first groove portion and a second groove portion by a first groove side and a second groove side, the first groove side having an oblique side portion diagonally disposed relative to a tire circumferential line in plan view, the second groove side intersecting with the oblique side portion of the first groove side at an acute angle (β) in plan view, characterized in that the first groove portion and the second groove portion both have a groove depth that gradually reduces in an extending direction of the groove toward an intersection between the oblique side portion and the second groove side, and a groove wall extending from the first groove side is formed as a tapered surface (T1, T4) mildly-sloped toward a groove bottom on the intersection side when viewed in a groove transverse direction.
A system for equalizing pressure in an endoscope while preventing a liquid from entering an interior of the endoscope through an opening in the endoscope comprising: an endoscope having an opening and a valve; a cap having a body that fits over the opening; a hole (140, 144, 146) in the body of the cap; a filter (160, 360) occluding the hole (140, 144, 146) and made from a material which permits a gas to pass through the filter (160, 360) and which prevents the liquid from passing through the filter (160, 360); characterized by a stem attached to the body and aligned and centered with the hole (140, 144, 146) of the cap, the stem being adapted to actuate and/or hold open a valve of the endoscope when the cap is fitted to the opening. an endoscope having an opening and a valve; a cap having a body that fits over the opening; a hole (140, 144, 146) in the body of the cap; a filter (160, 360) occluding the hole (140, 144, 146) and made from a material which permits a gas to pass through the filter (160, 360) and which prevents the liquid from passing through the filter (160, 360); characterized by a stem attached to the body and aligned and centered with the hole (140, 144, 146) of the cap, the stem being adapted to actuate and/or hold open a valve of the endoscope when the cap is fitted to the opening.
A tissue retraction assembly for access within a patient's body, comprising: an elongate body shaft; an actuation member movable relative to the elongate body shaft; and a first arm member and a second arm member having at least a first end attached to a distal tip of the elongate body shaft via a pivot or pinned connection and where each arm member (22, 24) has a substantially uniform cross-section along its length, wherein each arm member (22, 24) is positioned along the elongate body shaft opposite to one another such that each arm member (22, 24) reconfigures radially to be set and maintained in one or more intermediate positions via an intermediary stop mechanism whereby each arm member (22, 24) is correspondingly configured within a single plane from a low profile to an expanded curved or arcuate planar profile when urged via the actuation member such that the assembly reconfigures along the single plane, and wherein each arm member (22, 24) is further positioned along the elongate body shaft such that each arm member (22, 24) is reconfigurable into an overextended arcuate configuration. an elongate body shaft; an actuation member movable relative to the elongate body shaft; and a first arm member and a second arm member having at least a first end attached to a distal tip of the elongate body shaft via a pivot or pinned connection and where each arm member (22, 24) has a substantially uniform cross-section along its length, wherein each arm member (22, 24) is positioned along the elongate body shaft opposite to one another such that each arm member (22, 24) reconfigures radially to be set and maintained in one or more intermediate positions via an intermediary stop mechanism whereby each arm member (22, 24) is correspondingly configured within a single plane from a low profile to an expanded curved or arcuate planar profile when urged via the actuation member such that the assembly reconfigures along the single plane, and wherein each arm member (22, 24) is further positioned along the elongate body shaft such that each arm member (22, 24) is reconfigurable into an overextended arcuate configuration.
A laundry care machine, comprising a thermal insulation part, a first thermal insulated part and a second thermal insulated part that are adjacently disposed, characterized in that the thermal insulation part comprises: a first thermal insulation pad, a second thermal insulation pad, and a girder connecting the first thermal insulation pad to the second thermal insulation pad, the first thermal insulation pad is disposed opposite to the second thermal insulation pad, and the first thermal insulation pad and the second thermal insulation pad have a gap that accommodates at least a part of the first thermal insulated part, wherein the thermal insulation part is installed on the first thermal insulated part, and the second thermal insulation pad separates the first thermal insulated part from the second thermal insulated part. a thermal insulation part, a first thermal insulated part and a second thermal insulated part that are adjacently disposed, characterized in that the thermal insulation part comprises: a first thermal insulation pad, a second thermal insulation pad, and a girder connecting the first thermal insulation pad to the second thermal insulation pad, the first thermal insulation pad is disposed opposite to the second thermal insulation pad, and the first thermal insulation pad and the second thermal insulation pad have a gap that accommodates at least a part of the first thermal insulated part, wherein the thermal insulation part is installed on the first thermal insulated part, and the second thermal insulation pad separates the first thermal insulated part from the second thermal insulated part.
A medical device having a flat surface adapted for delivering one or more drugs, comprising: one or more drug coating layers on the flat surface, at least one of the drug coating layers having at least one barrier layer adapted for controlling a rate of flow of material across the at least one barrier layer, and further wherein the at least one barrier layer consists of drug modified by Neutral Beam irradiation.
Mainspring including a metallic strip wound on itself, the mainspring including an outer coil including an excess thickness in one-piece with the strip between the start of the outer coil and before the free end of the outer coil which forms a base extending radially with a substantially uniform thickness towards the exterior of the mainspring, and at least a second strip (22, 24) forming a bridle in one-piece with the strip extends from the base and at least partially runs along the exterior of the non-thickened outer coil of the mainspring.
A composition comprising chlorhexidine gluconate solubilized in a hydrophobic vehicle having a hydrophilic-lipophilic balance of no greater than 10 as determined using the HLB Method; wherein the hydrophobic vehicle comprises an alcohol having proximate hydroxyl groups, wherein the composition comprises no greater than 2 parts by weight hydrophilic vehicle per 1 part by weight chlorhexidine gluconate; and wherein the composition comprises no greater than 1 part by weight water per 1 part by weight chlorhexidine gluconate.
A gripper arrangement for component placement on mounting plates in switchgear and control system manufacturing, the gripper arrangement having two gripper jaws whose distance from one another can be adjusted by means of a linear adjusting unit, wherein the gripper jaws each have at least one projection at the end on their outer sides facing away from one another, wherein the gripper jaws are plate-shaped and have a thickness (d) in the direction of displacement (x) of the gripper jaws relative to each other which is substantially smaller than a width (b) and a height (h) of the gripper jaws perpendicular to each other and perpendicular to the thickness (d), wherein at least one of the gripper jaws has a recess on its inner side facing the respective opposite gripper jaw, characterized in that the recess is open towards an end face and towards a longitudinal side of the gripper jaw.
Device for treating container closures, preferably for sterilising container closures for closing containers in a beverage filling plant, comprising a treatment chamber for treating container closures, and a transport device for transporting container closures through the treatment chamber, wherein the transport device comprises a linear drive which has an elongate stator and, for receiving a container closure that is to be treated or a plurality of container closures that are to be treated, at least one carriage that can be driven individually via the elongate stator, characterised in that the linear drive can be operated in a conveying direction and a counter-conveying direction, so that container closures located in the treatment chamber can be moved out of the treatment chamber in a direction contrary to the conveying direction.
Filter with three phases (L1, L2, L3) comprising for each phase an input terminal, an output terminal and a capacitor, wherein for each of the three phases (L1, L2, L3) the input terminal is electrically connected via a connection point to the output terminal, wherein the connection points of the three phases (L1, L2, L3) are electrically connected via the three capacitors in star and/or delta form, wherein the filter comprises a housing containing two coil blocks, wherein the housing comprises a first side and a second side opposite the first side, wherein the two coil blocks are arranged along a line between the first side and the second side, wherein a fan for cooling the two coil blocks is arranged on the first side of the housing, wherein the larger of the two coil blocks is arranged between the fan and the smaller of the two coil blocks, wherein the two coil blocks are selected from the following three coil blocks: a first coil block having three first coils, wherein for each of the three phases (L1, L2, L3) one of the three first coils is connected between the connection point and the input terminal, a second coil block having three second coils, wherein the connection points of the three phases (L1, L2, L3) are electrically connected via the three second coils and the three capacitors in star and/or delta form, and a third coil block having three third coils, wherein for each of the three phases (L1, L2, L3) one of the three third coils is connected between the connection point and the output terminal characterized in that the housing tapers from the first side towards the second side. a first coil block having three first coils, wherein for each of the three phases (L1, L2, L3) one of the three first coils is connected between the connection point and the input terminal, a second coil block having three second coils, wherein the connection points of the three phases (L1, L2, L3) are electrically connected via the three second coils and the three capacitors in star and/or delta form, and a third coil block having three third coils, wherein for each of the three phases (L1, L2, L3) one of the three third coils is connected between the connection point and the output terminal characterized in that the housing tapers from the first side towards the second side.
A method for producing back surface contact solar cells from crystalline silicon, having the following steps: (a) Doping, preferably by means of laser doping, for producing an n-doped or p-doped region (20, 22); (b) Exposing contact surfaces on the back surface of the solar cell, preferably by means of laser ablation; (c) Applying a metal layer to a back surface of the solar cell; and, (d) Structuring the metal layer by means of laser ablation for producing metal contacts, wherein the pitch is at most 800 micrometers characterized in that in step (c) an aluminum layer is applied, then a layer which is resistant to anodization is applied, which in the subsequent step (d) is selectively ablated by means of laser and then is completely anodized in the ablated regions. (a) Doping, preferably by means of laser doping, for producing an n-doped or p-doped region (20, 22); (b) Exposing contact surfaces on the back surface of the solar cell, preferably by means of laser ablation; (c) Applying a metal layer to a back surface of the solar cell; and, (d) Structuring the metal layer by means of laser ablation for producing metal contacts, wherein the pitch is at most 800 micrometers
Follistatin for use in a method of treatment of fibrosis in a vertebrate in need of said treatment, wherein said fibrosis is selected from: hyperproliferative or inflammatory fibrotic diseases; inflammatory bowel disease, ulcerative colitis and Crohn's Disease; tubular necrosis in the kidney; and liver fibrosis.
A method for analyzing a blood sample, the method comprising: - arranging a cuvette comprising a sampling cavity and a sample analysis cavity on a rotatable member, wherein the sampling cavity comprises a blood sample to be analyzed; - prior to the first rotation cycle, rotating the rotatable member at an initial speed in an initial rotation cycle, wherein the initial speed is insufficient for transfer of the blood sample from the sampling cavity to the sample analysis cavity, - obtaining, using a photometer, during the initial rotation cycle, initial absorbance data indicative of an absorbance in or through the sample analysis cavity of the cuvette, - determining, based on the initial absorbance data, a cuvette parameter associated with the cuvette, - providing an output indicative of the cuvette parameter, - rotating the rotatable member at a first speed in a first rotation cycle for transfer of the blood sample from the sampling cavity to the sample analysis cavity; - rotating the rotatable member at a second speed in a second rotation cycle after the first rotation cycle for separating blood parts from plasma in the blood sample; - obtaining, using the photometer, during the second rotation cycle, second absorbance data indicative of absorbance in the plasma; - determining, based on the second absorbance data, a second blood parameter being a plasma free hemoglobin level of the blood sample; and - providing an output indicative of the second blood parameter. - arranging a cuvette comprising a sampling cavity and a sample analysis cavity on a rotatable member, wherein the sampling cavity comprises a blood sample to be analyzed; - prior to the first rotation cycle, rotating the rotatable member at an initial speed in an initial rotation cycle, wherein the initial speed is insufficient for transfer of the blood sample from the sampling cavity to the sample analysis cavity, - obtaining, using a photometer, during the initial rotation cycle, initial absorbance data indicative of an absorbance in or through the sample analysis cavity of the cuvette, - determining, based on the initial absorbance data, a cuvette parameter associated with the cuvette, - providing an output indicative of the cuvette parameter, - rotating the rotatable member at a first speed in a first rotation cycle for transfer of the blood sample from the sampling cavity to the sample analysis cavity; - rotating the rotatable member at a second speed in a second rotation cycle after the first rotation cycle for separating blood parts from plasma in the blood sample; - obtaining, using the photometer, during the second rotation cycle, second absorbance data indicative of absorbance in the plasma; - determining, based on the second absorbance data, a second blood parameter being a plasma free hemoglobin level of the blood sample; and - providing an output indicative of the second blood parameter.