mhurhangee/ep-ind-claims huggingface dataset:
A tissue specimen stage for a microscope having an objective lens for imaging tissue through a window comprising: said window having a surface with a curvature, being rotationally symmetric in two axes, upon which an excised tissue specimen is locatable a carriage to which said window is mounted; and a platform for supporting the carriage and presenting said window to the objective lens of the microscope, wherein said carriage is mounted to said platform for movement along two rotational axes so that said carriage movement is adapted to follow the curvature of at least part of the window while maintaining the optical geometry of the window with respect to the objective lens. said window having a surface with a curvature, being rotationally symmetric in two axes, upon which an excised tissue specimen is locatable a carriage to which said window is mounted; and a platform for supporting the carriage and presenting said window to the objective lens of the microscope, wherein said carriage is mounted to said platform for movement along two rotational axes so that said carriage movement is adapted to follow the curvature of at least part of the window while maintaining the optical geometry of the window with respect to the objective lens.
Repositioning device for timepieces comprising a repositioning cam, a hammer, a return spring and a control device, the control device being arranged to keep the hammer in an inoperative position against the action of the return spring, to release the hammer so that it strikes the repositioning cam under the action of the return spring and causes it to turn until locking it in a predetermined position, and to return the hammer to its inoperative position against the action of the return spring, the return spring being arranged to work within a predetermined range of winding angles during each return of the hammer to its inoperative position, the return spring being a spring which behaves in a non-linear manner, the stiffness of which is zero or negative in at least part of the predetermined range.
A method for protecting an electronic device using a device protection server and a credential protection server, the method comprising, at the electronic device: receiving, from the credential protection server, a first suspension token and an associated first credential for a first user associated with a first user identifier; storing the first suspension token and the associated first credential; receiving, from the credential protection server, a second suspension token and an associated second credential for a second user associated with a second user identifier; storing the second suspension token and the associated second credential; and transmitting, to the device protection server, device suspension data, the device suspension data comprising: the first suspension token, the second suspension token, a device identifier of the electronic device, and the second user identifier. receiving, from the credential protection server, a first suspension token and an associated first credential for a first user associated with a first user identifier; storing the first suspension token and the associated first credential; receiving, from the credential protection server, a second suspension token and an associated second credential for a second user associated with a second user identifier; storing the second suspension token and the associated second credential; and transmitting, to the device protection server, device suspension data, the device suspension data comprising: the first suspension token, the second suspension token, a device identifier of the electronic device, and the second user identifier.
A fluid flow regulation assembly comprising - movable parts for being actively mechanically driven, wherein the movable parts include at least one fluid flow regulating body for regulating a fluid flow and a rotor of a motor for driving the regulating body, and - power electronics for controlling the motor, wherein the movable parts and/or the power electronics are a source of vibration, wherein the fluid flow regulation assembly further comprises - static parts being exposed to travelling vibrations originating from the source of vibration, wherein the static parts include at least one of the group comprising: a pump housing, a valve housing, a motor housing, a pump base and an electronics housing; wherein the static parts comprise a structural element with at least one vibration attenuation section for attenuating vibrations that - originate from the source of vibration, - travel along said structural element, and - have a vibration frequency above a pre-determined minimum vibration frequency (f min), characterized in that the at least one vibration attenuation section has a material thickness decay profile in travelling direction of the vibrations. - movable parts for being actively mechanically driven, wherein the movable parts include at least one fluid flow regulating body for regulating a fluid flow and a rotor of a motor for driving the regulating body, and - power electronics for controlling the motor, wherein the movable parts and/or the power electronics are a source of vibration, wherein the fluid flow regulation assembly further comprises - static parts being exposed to travelling vibrations originating from the source of vibration, wherein the static parts include at least one of the group comprising: a pump housing, a valve housing, a motor housing, a pump base and an electronics housing; wherein the static parts comprise a structural element with at least one vibration attenuation section for attenuating vibrations that - originate from the source of vibration, - travel along said structural element, and - have a vibration frequency above a pre-determined minimum vibration frequency (f min),
A method of receiving a digital packetized program stream from a satellite source and distributing the packetized program stream through a data network, comprising the steps of: receiving a plurality of packetized program streams from the satellite source, each packetized program stream having associated therewith program identification information; receiving a request for a particular packetized program stream, the request including a multicast address mapped to the packetized program stream, wherein certain bits of the multicast address are used to encode program identification information and satellite identification information associated with the packetized program stream; determining the program identification information and the satellite identification information associated with the particular packetized program stream from the multicast address; tuning to a selected satellite and acquiring the particular packetized program stream using the determined satellite identification information and the program identification information; and transmitting, on the data network, the particular packetized program stream in accordance with a transport format associated with the data network using the multicast address. receiving a plurality of packetized program streams from the satellite source, each packetized program stream having associated therewith program identification information; receiving a request for a particular packetized program stream, the request including a multicast address mapped to the packetized program stream, wherein certain bits of the multicast address are used to encode program identification information and satellite identification information associated with the packetized program stream; determining the program identification information and the satellite identification information associated with the particular packetized program stream from the multicast address; tuning to a selected satellite and acquiring the particular packetized program stream using the determined satellite identification information and the program identification information; and transmitting, on the data network, the particular packetized program stream in accordance with a transport format associated with the data network using the multicast address.
A method for augmenting a component providing smoking flavor for a tobacco product, the method comprising the steps of: preparing at least one raw material for flavor selected from the group consisting of natural sugars, the original form of a plant, and a liquid extract distilled or condensed from the original form of a plant; accommodating the raw material in an oven at a volume ratio of 50 to 80% by volume relative to a volume amount of the oven; heating the raw material in the oven to 80 to 100°C at a temperature increase rate of 1.0 to 2.0°C/minute while stirring the raw material; and cooling the contents in the oven after processing to a desired temperature at a temperature decrease rate of 0.40 to 0.85°C/minute. preparing at least one raw material for flavor selected from the group consisting of natural sugars, the original form of a plant, and a liquid extract distilled or condensed from the original form of a plant; accommodating the raw material in an oven at a volume ratio of 50 to 80% by volume relative to a volume amount of the oven; heating the raw material in the oven to 80 to 100°C at a temperature increase rate of 1.0 to 2.0°C/minute while stirring the raw material; and cooling the contents in the oven after processing to a desired temperature at a temperature decrease rate of 0.40 to 0.85°C/minute.
Device for carrying out a process of maturation of food before cooking comprising: i. a tank made of stainless steel or other material [Fig.1] fitted with watertight cover [Fig.1] and equipped with one or more arrays of transducers for Ultrasound waves [Fig.1] that may be transmitted in its cavity, ii. the Ultrasound transducers are coupled to a convex metal lens with the appropriate size, positioned in the area of emission of the transducer, the lens allowing to focus the energy of the Ultrasound wave, iii. a liquid inside the tank [Fig.1], iv. a circulation pump [Fig.1] configured to circulate the liquid inside the tank, v. an air intake pump [Fig.1] configured to create a state of vacuum when necessary, between the liquid contained in the tank [Fig.1] and the watertight cover [Fig.1], vi. heating elements [Fig.1] of all the walls of the tank by means of electrical resistance, pressure sensors [Fig.1], temperature sensors [Fig.1] and liquid level sensors [Fig.1], vii. all said elements, i.e Ultrasound transducers, heating elements, pressure-, temperature-and liquid level-sensors, circulation pump and vacuum pump, being inserted in the tank, viii. all said elements being controlled by an external PLC [Fig.1] equipped with the appropriate drivers and with a user interface that allows the operator to display a monitor of the states and/or programs and/or edit the desired functions, ix. one or more waterproof plastic container [Fig.5]. i. a tank made of stainless steel or other material [Fig.1] fitted with watertight cover [Fig.1] and equipped with one or more arrays of transducers for Ultrasound waves [Fig.1] that may be transmitted in its cavity, ii. the Ultrasound transducers are coupled to a convex metal lens with the appropriate size, positioned in the area of emission of the transducer, the lens allowing to focus the energy of the Ultrasound wave, iii. a liquid inside the tank [Fig.1], iv. a circulation pump [Fig.1] configured to circulate the liquid inside the tank, v. an air intake pump [Fig.1] configured to create a state of vacuum when necessary, between the liquid contained in the tank [Fig.1] and the watertight cover [Fig.1], vi. heating elements [Fig.1] of all the walls of the tank by means of electrical resistance, pressure sensors [Fig.1], temperature sensors [Fig.1] and liquid level sensors [Fig.1], vii. all said elements, i.e Ultrasound transducers, heating elements, pressure-, temperature-and liquid level-sensors, circulation pump and vacuum pump, being inserted in the tank, viii. all said elements being controlled by an external PLC [Fig.1] equipped with the appropriate drivers and with a user interface that allows the operator to display a monitor of the states and/or programs and/or edit the desired functions, ix. one or more waterproof plastic container [Fig.5].
A flat battery comprising: - a battery element; - an exterior member that seals the battery element, wherein the battery element is within an interior region of exterior member; and - an electrode terminal (40a, 40b) extending from the exterior member, wherein the electrode terminal comprises an output section, a voltage detection section and a notch between the output section and the voltage detection section, characterized in that - the exterior member comprises a first sheet member and a second sheet member, wherein the outer edges of the first sheet member and second sheet member are joined at a junction region, and wherein the electrode terminals (40a, 40b) extend to the outside of the flat battery from the junction region, and - an end of the notch is positioned at the junction region. - a battery element; - an exterior member that seals the battery element, wherein the battery element is within an interior region of exterior member; and - an electrode terminal (40a, 40b) extending from the exterior member, wherein the electrode terminal comprises an output section, a voltage detection section and a notch between the output section and the voltage detection section, - the exterior member comprises a first sheet member and a second sheet member, wherein the outer edges of the first sheet member and second sheet member are joined at a junction region, and wherein the electrode terminals (40a, 40b) extend to the outside of the flat battery from the junction region, and - an end of the notch is positioned at the junction region.
A control unit for controlling a marine vessel to avoid an undesired situation, the control unit comprising processing circuitry and a storage medium, wherein the control unit is arranged to receive path data from one or more sensor devices (231, 232, 233, 234, 235) indicative of a path travelled by the marine vessel in a forward direction and to store the received path data by the storage medium, characterized in that the control unit is arranged to receive a trigger signal (221, 221') from an input device (220, 220'), and, in response to the trigger signal (221, 221'), determine a set of candidate locations associated with a pre-determined required space for turning, determine a location for turning the vessel around by selecting the candidate closest to the current location or the candidate reached by a minimum of control maneuvers, navigate to the location, turn the vessel around at the location, and navigate the vessel along the path in reverse direction.
A wireless power transfer system comprising: a first coil device and a second coil device, wherein the first coil device faces the second coil device in a first direction and is configured to wirelessly perform power transmission or power reception, the first coil device comprises a first coil portion that faces a second coil portion of the second coil device in the first direction and includes a conductive wire, and at least one nonmagnetic member that includes a protrusion (31a, 31b, 31c, 31d) protruding to an outside of the first coil portion in a second direction orthogonal to the first direction, wherein the nonmagnetic member is an electrically conductive shield and includes an eddy current interrupter configured to interrupt a part of an eddy current generated in the nonmagnetic member, and characterised in that the eddy current interrupter is a hole penetrating the nonmagnetic member in the first direction. a first coil device and a second coil device, wherein the first coil device faces the second coil device in a first direction and is configured to wirelessly perform power transmission or power reception, the first coil device comprises a first coil portion that faces a second coil portion of the second coil device in the first direction and includes a conductive wire, and at least one nonmagnetic member that includes a protrusion (31a, 31b, 31c, 31d) protruding to an outside of the first coil portion in a second direction orthogonal to the first direction, wherein the nonmagnetic member is an electrically conductive shield and includes an eddy current interrupter configured to interrupt a part of an eddy current generated in the nonmagnetic member, and characterised in that the eddy current interrupter is a hole penetrating the nonmagnetic member in the first direction.
A solid laundry detergent, comprising: a protease comprising an amino acid sequence that is at least 80% identical to the amino acid sequence set forth in SEQ ID NO. 1 and contains at position 99 in the numbering according to SEQ ID NO. 1 the amino acid glutamic acid or aspartic acid; or a protease comprising an amino acid sequence that is at least 80% identical to the amino acid sequence set forth in SEQ ID NO. 1 and contains at position 99 in the numbering according to SEQ ID NO. 1 the amino acid asparagine or glutamine, wherein the solid laundry detergent in a 1 wt.% solution in deionized water at 20°C has a pH value in a range from 4.0 to less than 10. a protease comprising an amino acid sequence that is at least 80% identical to the amino acid sequence set forth in SEQ ID NO. 1 and contains at position 99 in the numbering according to SEQ ID NO. 1 the amino acid glutamic acid or aspartic acid; or a protease comprising an amino acid sequence that is at least 80% identical to the amino acid sequence set forth in SEQ ID NO. 1 and contains at position 99 in the numbering according to SEQ ID NO. 1 the amino acid asparagine or glutamine,
Apparatus for delivering one bioabsorbable fastener from a group of one or more such fasteners (50a, 50b, 50c, 50d, 50e, 50f, 50g, 50h, 50i, 50j), each of the fasteners including a first leg and a second leg, the apparatus comprising: a first needle and a second needle; an actuator for use by a user of the apparatus to move the first and second needles (65a, 65b); a timing lever configured to be moved by the actuator; a first tube and a second tube (67a, 67b), the first and second tubes (67a, 67b) for guiding the movement respectively of the first and second needles (65a, 65b) when the actuator is used by the user to move the first and second needles (65a, 65b); at least one alignment surface (210a, 210a', 210b, 210b') configured to axially align the first and second tubes (67a, 67b) with the first and second legs (317a, 317b) respectively; and a magazine comprising a fastener support configured to support the bioabsorbable fasteners (50a, 50b, 50c, 50d, 50e, 50f, 50g, 50h, 50i, 50j) to guide one of the fasteners at a time into contact with the at least one alignment surface (210a, 210a', 210b, 210b') wherein the movement of the first and second needles (65a, 65b) causes engagement of the first and second needles with said first and second legs (317a, 317b) respectively to deliver said one fastener and wherein the timing lever is configured to contact the fastener support and move it rearward upon actuation of the actuator by the user to release said one of the fasteners from the magazine. a first needle and a second needle; an actuator for use by a user of the apparatus to move the first and second needles (65a, 65b); a timing lever configured to be moved by the actuator; a first tube and a second tube (67a, 67b), the first and second tubes (67a, 67b) for guiding the movement respectively of the first and second needles (65a, 65b) when the actuator is used by the user to move the first and second needles (65a, 65b); at least one alignment surface (210a, 210a', 210b, 210b') configured to axially align the first and second tubes (67a, 67b) with the first and second legs (317a, 317b) respectively; and a magazine comprising a fastener support configured to support the bioabsorbable fasteners (50a, 50b, 50c, 50d, 50e, 50f, 50g, 50h, 50i, 50j) to guide one of the fasteners at a time into contact with the at least one alignment surface (210a, 210a', 210b, 210b') wherein the movement of the first and second needles (65a, 65b) causes engagement of the first and second needles with said first and second legs (317a, 317b) respectively to deliver said one fastener and wherein the timing lever is configured to contact the fastener support and move it rearward upon actuation of the actuator by the user to release said one of the fasteners from the magazine.
A membrane cell arrangement comprising at least two adjacent cells (100, 101) wherein the at least two cells share a common fluid flow manifold, the fluid flow manifold comprising a region of metal foam shared between the two adjacent cells.
A compound selected from the group consisting of octahydro-4,7-methano-1H-indene-5-acetaldehyde, octahydro-6-methyl-4,7-methano-1H-indene-5-carboxaldehyde, and a mixture thereof.
Assembly of a condom applicator (10, 50, 60) and a condom pre-fitted in the condom applicator (10, 50, 60), said condom applicator (10, 50, 60) comprising two opposing applicator halves (61 a, 61 b, 70a, 70b), each comprising a receiving means (1a, 1b, 64) in which the rolled up part of the condom is received and a gripping member (4, 63) for gripping each of the halves for moving them apart, characterized in that the applicator halves are connected on one side by a hinge member (6, 62,70c) defining a hinge axis which is parallel to the axis of the condom, and in that the gripping members (4, 63) are diametrically opposed with respect to the axis of the condom.
Glue application roller (100, 200) for use in a gluing unit equipped with at least one dip roller, wherein the glue application roller has a glue roller body that is formed with a central bore for receiving a drive shaft (103, 103a), characterized in that the glue roller body consists of at least two parts, namely, for the one part, a basic body, which is in a non-positive operative connection with the drive shaft (103, 103a), and, for the other part, an outer ring, which is formed at least with a cavity, in that the basic body and outer ring are connected together in a non-positive manner by at least one means (107; 108, 109), in that, at least on one side of the glue roller body, means (116, 118; 116, 203, 204, 205) are arranged, which ensure the supply or discharge of compressed air and/or some other gaseous or liquid medium into or out of the cavity, and in that this supply or discharge of the compressed air and/or other medium brings about a change in the circumferential contour (119, 120) of the cavity, characterized in that, starting from a concave circumferential contour of the outer ring, which is designed for processing a round or almost round book block spine extending in a convex manner, the compressed air and/or other medium is/are able to be introduced into the cavity until the circumferential contour of the outer ring is able to be modified into a flat or almost flat form for processing a corresponding book block spine, or in that, starting from a flat circumferential contour of the outer ring for processing a flat book block spine, compressed air and/or other medium is/are still able to be introduced into the cavity until this circumferential contour of the outer ring has a convex form for processing a corresponding book block spine extending in a concave manner.