mhurhangee/ep-ind-claims huggingface dataset:
A light detection and ranging device, comprising: an optical system, wherein the optical system defines a focal surface having a curved shape; a flexible substrate; a plurality of photodetectors mounted on the flexible substrate; and a clamp comprising at least a first clamping piece and a second clamping piece, wherein the first clamping piece has a convex surface that corresponds to the curved shape of the focal surface, wherein the second clamping piece has a concave surface that corresponds to the curved shape of the curved focal surface, and wherein the clamp is configured to hold the flexible substrate between the first and second clamping pieces such that the flexible substrate substantially conforms to the curved shape of the focal surface and each of the photodetectors in the plurality of photodetectors is at a respective location on the focal surface, wherein the flexible substrate comprises a plurality of alignment holes, and wherein the clamp comprises a plurality of dowel pins extending through the plurality of alignment holes so as to position the flexible substrate relative to the clamp, wherein the plurality of dowel pins extend through corresponding holes in at least one of the first clamping piece and the second clamping piece, and the first clamping piece and the second clamping piece are secured together around the flexible substrate. an optical system, wherein the optical system defines a focal surface having a curved shape; a flexible substrate; a plurality of photodetectors mounted on the flexible substrate; and a clamp comprising at least a first clamping piece and a second clamping piece, wherein the first clamping piece has a convex surface that corresponds to the curved shape of the focal surface, wherein the second clamping piece has a concave surface that corresponds to the curved shape of the curved focal surface, and wherein the clamp is configured to hold the flexible substrate between the first and second clamping pieces such that the flexible substrate substantially conforms to the curved shape of the focal surface and each of the photodetectors in the plurality of photodetectors is at a respective location on the focal surface, wherein the flexible substrate comprises a plurality of alignment holes, and wherein the clamp comprises a plurality of dowel pins extending through the plurality of alignment holes so as to position the flexible substrate relative to the clamp, wherein the plurality of dowel pins extend through corresponding holes in at least one of the first clamping piece and the second clamping piece, and the first clamping piece and the second clamping piece are secured together around the flexible substrate.
A vibration absorber arrangement for reducing vibrations, particularly for tall narrow buildings, having a pendulum, which is suspensible on the building, and an absorber mass arranged on the pendulum, wherein the pendulum is coupled by means of a coupling device to an additional mass, which is displaceable horizontally exclusively, characterized in that the coupling device is displaceable in the vertical direction between the pendulum and the additional mass.
Vertical fin field effect transistor, comprising: • a semiconductor fin; • an n-doped source region; • an n-doped drift region; • an n-doped channel region arranged vertically between the source region and the drift region in the semiconductor fin; • at least one gate region horizontally adjacent to the channel region; • a gate dielectric, which electrically insulates the gate region from the channel region, wherein an interface layer between the gate dielectric and the channel region and/or the gate dielectric have/has negative interface charges; • a p-doped gate shielding region arranged below the gate region such that, in a vertical projection, the gate shielding region lies at least partly within an area delimited by the gate dielectric; • a source contact, which is electrically conductively connected to the source region; and • an electrically conductive region (18, 20) between the gate region and the p-doped gate shielding region; • wherein the p-doped gate shielding region is electrically conductively connected to the source contact by means of the electrically conductive region (18, 20). • a semiconductor fin; • an n-doped source region; • an n-doped drift region; • an n-doped channel region arranged vertically between the source region and the drift region in the semiconductor fin; • at least one gate region horizontally adjacent to the channel region; • a gate dielectric, which electrically insulates the gate region from the channel region, wherein an interface layer between the gate dielectric and the channel region and/or the gate dielectric have/has negative interface charges; • a p-doped gate shielding region arranged below the gate region such that, in a vertical projection, the gate shielding region lies at least partly within an area delimited by the gate dielectric; • a source contact, which is electrically conductively connected to the source region; and • an electrically conductive region (18, 20) between the gate region and the p-doped gate shielding region; • wherein the p-doped gate shielding region is electrically conductively connected to the source contact by means of the electrically conductive region (18, 20).
A container body decorator comprising: a controller having a software routine stored on a memory; a plurality of ink-jet print heads in communication with the controller; an endless image transfer belt having a circumferential configuration with an inner surface opposite a printing surface; a print site; and a container body handling module, wherein the container body handling module comprises a plurality of impression rolls movable relative to the printing site, wherein each impression roll is configured to fit within an interior of each container body in a plurality of generally identical unadorned container bodies to be decorated by the container body decorator, wherein each impression roll in the plurality of impression rolls transports one container body in the plurality of container bodies to the printing site, and wherein each container body in the plurality of container bodies contacts the printing surface of the endless image transfer belt at the printing site. a controller having a software routine stored on a memory; a plurality of ink-jet print heads in communication with the controller; an endless image transfer belt having a circumferential configuration with an inner surface opposite a printing surface; a print site; and a container body handling module, wherein the container body handling module comprises a plurality of impression rolls movable relative to the printing site, wherein each impression roll is configured to fit within an interior of each container body in a plurality of generally identical unadorned container bodies to be decorated by the container body decorator, wherein each impression roll in the plurality of impression rolls transports one container body in the plurality of container bodies to the printing site, and wherein each container body in the plurality of container bodies contacts the printing surface of the endless image transfer belt at the printing site.
An in-vitro method for the diagnosis of an autoimmune disorder, wherein the open form transglutaminase or antigenically active fragments of the open form transglutaminase are used for the detection of the presence of autoantibodies specific for the open form transglutaminase or antigenically active fragments of the open form transglutaminase, wherein antigenically active fragments of the open form transglutaminase are peptides after reaction with an inhibitor comprising a backbone, a peptide backbone or a peptidomimetic backbone and a thiol reactive group able to form a covalent bond to the thiol group of the cysteine in the active site of the respective transglutaminase and the antigenically active fragments have an arrangement of amino acid residues forming part of the surface of the open form transglutaminase exposed upon enzyme activation and wherein the antigenically active fragments are able to elicit an antibody response against epitopes, which are only accessible for antibodies after binding of an inhibitor.
An oscillating water column wave power generating device using a breakwater generating electric power by air being moved due to sea water flowing inward by waves, by being installed on the breakwater, the device comprising: - an oscillating water column chamber extended along a breakwater slope by being provided on a top portion of a side surface of the breakwater and formed with a space allowing the sea water to be moved into an inner side thereof; - a sea water inlet part, with a side of the oscillating water column chamber extended to a lower portion of the breakwater along the breakwater slope, allowing the sea water to flow into an inner side thereof by the waves; - an air flow part, with an opposite side of the oscillating water column chamber extended to an upper portion of the breakwater along the breakwater slope, provided on a top portion of one side of the breakwater to allow the air being moved due to the sea water flowing into the inner side of the oscillating water column chamber to communicate with the outside; and - a power generation turbine provided inside the air flow part and generating electric power by being rotated by the air being moved, characterized in that, the air flow part includes air flow holes configured in a multi-stage manner to control the pressure of the air being moved in the power generation turbine, wherein the air flow part includes variable air flow holes varying a width of the air flow part to adjust the pressure of the air being moved in the power generation turbine. - an oscillating water column chamber extended along a breakwater slope by being provided on a top portion of a side surface of the breakwater and formed with a space allowing the sea water to be moved into an inner side thereof; - a sea water inlet part, with a side of the oscillating water column chamber extended to a lower portion of the breakwater along the breakwater slope, allowing the sea water to flow into an inner side thereof by the waves; - an air flow part, with an opposite side of the oscillating water column chamber extended to an upper portion of the breakwater along the breakwater slope, provided on a top portion of one side of the breakwater to allow the air being moved due to the sea water flowing into the inner side of the oscillating water column chamber to communicate with the outside; and - a power generation turbine provided inside the air flow part and generating electric power by being rotated by the air being moved, characterized in that, the air flow part includes air flow holes configured in a multi-stage manner to control the pressure of the air being moved in the power generation turbine, wherein the air flow part includes variable air flow holes varying a width of the air flow part to adjust the pressure of the air being moved in the power generation turbine.
A compound of the formula characterized in that R is a glycosyl group, for the use in the treatment of a disease and/or disorder in a subject that would benefit from erythropoietin treatment, wherein the compound is administered in a therapeutically effective amount, and wherein the disease and/or disorder is anemia.
A method for increasing production volume of fine particles: using at least two fluids as fluids to be processed, of these fluids, at least one fluid is a raw material fluid which contains at least one kind of the fine particle raw material, at least one fluid other than the said fluid is a fluid to process the fine particle raw material, wherein the said two or more fluids to be processed are mixed in a thin film fluid formed between at least two processing surfaces (1, 2) which are disposed in a position they are faced with each other so as to be able to approach to and separate from each other, at least one of which rotates relative to the other, thereby obtaining the fine particles in the method for producing fine particles, wherein the raw material fluid is introduced from the center of the at least two processing surfaces (1, 2), the raw material fluid passes through between both the processing surfaces while forming the thin film fluid, another introduction path independent of the flow path which the raw material fluid is passed is provided, and at least one opening leading to the another introduction path is arranged; the at least one fluid other than the said fluid is introduced between the processing surfaces through the opening, whereby mixing the raw material fluid with the at least one fluid other than the said fluid in the thin film fluid, wherein at least one of the processing surfaces (1, 2) is in the form of a ring, through the center of which the raw material fluid is introduced into between the processing surfaces (1, 2), characterized in that the form of the opening leading to the another introduction flow path is a circular ring, and the total open area (a) of the space between both the processing surfaces (1, 2) in the nearest point to the center of the ring, in which space the raw material fluid and the at least one other kind of the fluid are joined together, is 5 or less times relative to the total open area (b) of the opening leading to the another introduction path.
An electrode active material for a capacitive deionisation electrode, said electrode active material comprising: i. an adsorbent impregnated with a metal; ii. a conductive carbon black; iii. a carbon nanotube wherein the carbon nanotube has a surface carbon atom modified with an oxygen-based functional group or derivatives thereof; and, iv. a binder. wherein the oxygen based functional group is selected from hydroxyl group, a carbonyl group, an aldehyde group, a carboxyl group, a nitro group or a mixture thereof and wherein the metal is selected from gold, silver, platinum or copper or an alloy of the metal or mixtures thereof. i. an adsorbent impregnated with a metal; ii. a conductive carbon black; iii. a carbon nanotube wherein the carbon nanotube has a surface carbon atom modified with an oxygen-based functional group or derivatives thereof; and, iv. a binder.
A computer-implemented method for determining a subject specific set of treatment parameters prior to applying the treatment parameters for acoustic wave stimulation, the method comprising: • a step of generating subject specific data, wherein the step of generating subject specific data comprises measuring a geometric property of a body portion; • a step of determining a target field distribution in the body portion, wherein the step of determining a target field distribution comprises selection of an application; • a step of selecting a set of treatment parameters from at least two different sets of treatment parameters, wherein the step of selecting a set of treatment parameters is made prior to applying any set of treatment parameters to the body portion, characterised in that the step of selecting a set of treatment parameters comprises a comparison of a first expected field distribution related to a first set of treatment parameters with the target field distribution and a comparison of a second expected field distribution related to a second set of treatment parameters with the target field distribution. • a step of generating subject specific data, wherein the step of generating subject specific data comprises measuring a geometric property of a body portion; • a step of determining a target field distribution in the body portion, wherein the step of determining a target field distribution comprises selection of an application; • a step of selecting a set of treatment parameters from at least two different sets of treatment parameters, wherein the step of selecting a set of treatment parameters is made prior to applying any set of treatment parameters to the body portion,
A UWB impulse signal receiver, said UWB signal being time-divided into unit intervals of a predetermined duration ( T PRP), a symbol being transmitted over a plurality N of unit intervals, each unit interval comprising a unit impulse, the UWB signal comprising a synchronization preamble followed by a payload, the synchronization preamble comprising a sequence of M identical symbols; said receiver comprising an RF stage followed by a baseband processing stage, the RF stage being adapted to amplify said signal and to carry out a translation into baseband of the thus amplified signal, characterized in that he receiver receives said UWB signal during a receiving window having a duration equal to the symbol duration, divided into N receiving intervals and that the baseband processing stage comprises: a rake processor (550, 650) comprising a plurality K of time fingers (551 1,..., 551 K), each time finger being adapted to carry out a processing an acquisition window associated with said finger, each receiving interval comprising K acquisition windows; a detection module (590, 690) to estimate at least one received symbol from the processing results supplied by said fingers; a control module (580, 680) adapted to control the respective positions of the acquisition windows within a reception interval, so as to scan this interval in the course of a synchronization phase, said RF stage only operating, in the course of this phase, during said plurality of acquisition windows. a rake processor (550, 650) comprising a plurality K of time fingers (551 1,..., 551 K), each time finger being adapted to carry out a processing an acquisition window associated with said finger, each receiving interval comprising K acquisition windows; a detection module (590, 690) to estimate at least one received symbol from the processing results supplied by said fingers; a control module (580, 680) adapted to control the respective positions of the acquisition windows within a reception interval, so as to scan this interval in the course of a synchronization phase, said RF stage only operating, in the course of this phase, during said plurality of acquisition windows.
A device for attaching fire protection panels to concrete structures, comprising formwork for casting a concrete wall, at least one fire protection panel and at least one retaining device for the fire protection panel, characterized in that the fire protection panel has the retaining device on the side remote from the concrete wall, in that the retaining device is detachably fastened to the fire protection panel, the retaining device being bonded to the fire protection panel, in that the fire protection panel is retained in position during the concreting process by the retaining device and by means of a support device attached thereto, and in that the fire protection panel is non-detachably connected to the concrete wall after the concreting process, and in that the retaining device consists of sheet metal, spring steel or plastics material.
A baffle assembly (54; 154A,B; 254) of a gas turbine engine comprising: a collar (60; 161A,B; 260) with a port (64A,B; 164A,B; 264), the collar (60...260) having an inner side and an outer side (67; 267); a baffle (62A,B; 162A,B; 262) positioned in the port (64A...264) comprising: a first end proximate to the collar (60...260); a second end distal from the collar (60...260) and positioned on the inner side of the collar (60...260); and an elongate, hollow body extending from the first end (66A...266) to the second end (68A...168B); and a weld (70A,B; 170A,B; 270) connecting the baffle (62A...262) to the collar (60...260) at the first end, wherein the collar (60...260) continuously surrounds the body of the baffle (62A...262); characterised in that the baffle (62A,B; 162A,B;262) further comprises: a swage portion (66A,B) having a flared outer end proximate to and larger than the port (64A...264), such that a portion of the swage portion (66A,B) extends from the outer side (67;267) of the collar (60...260). a collar (60; 161A,B; 260) with a port (64A,B; 164A,B; 264), the collar (60...260) having an inner side and an outer side (67; 267); a baffle (62A,B; 162A,B; 262) positioned in the port (64A...264) comprising: a first end proximate to the collar (60...260); a second end distal from the collar (60...260) and positioned on the inner side of the collar (60...260); and an elongate, hollow body extending from the first end (66A...266) to the second end (68A...168B); and a first end proximate to the collar (60...260); a second end distal from the collar (60...260) and positioned on the inner side of the collar (60...260); and an elongate, hollow body extending from the first end (66A...266) to the second end (68A...168B); and a weld (70A,B; 170A,B; 270) connecting the baffle (62A...262) to the collar (60...260) at the first end, wherein the collar (60...260) continuously surrounds the body of the baffle (62A...262); characterised in that the baffle (62A,B; 162A,B;262) further comprises: a swage portion (66A,B) having a flared outer end proximate to and larger than the port (64A...264), such that a portion of the swage portion (66A,B) extends from the outer side (67;267) of the collar (60...260).
Soil working tool, in particular a grubber tip with a supporting part, wherein the supporting part has a cutting-edge holder on the end side, wherein the cutting-edge holder supports a main cutting element and at least two secondary cutting elements, wherein the main cutting element and the secondary cutting elements are fastened to cutting-element receptacles of the cutting-edge holder, wherein both the main cutting element and also the secondary cutting elements in each case have a cutting edge (20.3, 21.3), wherein the cutting edges (21.3) of the secondary cutting elements are arranged offset with respect to the cutting edge (20.3) of the main cutting element, characterized in that the cutting edges (21.3) of the secondary cutting elements run parallel to one another, and the cutting edge (20.3) of the main cutting element is parallel to the cutting edges (21.3) of the secondary cutting elements.
A pneumatic detector assembly (10;100) comprising: a housing; a sensor tube (40;140); and an alarm switch (20;120) coupled to the sensor tube (40;140), the alarm switch (20;120) having a first contact pin (24;124) and a first bellows (22;122) that includes a first contact face (26;126), the first contact face (26;126) of the first bellows (22;122) configured to be out of contact with the first contact pin (24;124) in a normal operating condition and to be in contact with the first contact pin (24;124) in an alarm condition based on a pressure in the sensor tube (40;140); characterized by: an integrity switch (30;130) coupled to the sensor tube (40;140), the integrity switch (30;130) having a second bellows (32;132) that includes a second contact face (36;136) and a second contact pin (34;134), the second contact face (36;136) of the second bellows (32;132) configured to be in contact with the second contact pin (34;134) in a normal operating condition and to be out of contact with the second contact pin (34;134) in a fault condition. a housing; a sensor tube (40;140); and an alarm switch (20;120) coupled to the sensor tube (40;140), the alarm switch (20;120) having a first contact pin (24;124) and a first bellows (22;122) that includes a first contact face (26;126), the first contact face (26;126) of the first bellows (22;122) configured to be out of contact with the first contact pin (24;124) in a normal operating condition and to be in contact with the first contact pin (24;124) in an alarm condition based on a pressure in the sensor tube (40;140); characterized by: an integrity switch (30;130) coupled to the sensor tube (40;140), the integrity switch (30;130) having a second bellows (32;132) that includes a second contact face (36;136) and a second contact pin (34;134), the second contact face (36;136) of the second bellows (32;132) configured to be in contact with the second contact pin (34;134) in a normal operating condition and to be out of contact with the second contact pin (34;134) in a fault condition.