mhurhangee/ep-ind-claims huggingface dataset:
A personal protection system, said system including: a headband adapted to be worn around the head of an individual; and an assembly (76, 78) mounted to the headband for holding a face shield in front of the face of the individual characterized in that: a cooling strip is mounted to the headband, said cooling strip including: at least one thermoelectric cooling module with a heat absorbing surface and a heat discharging surface; a flexible draw strip formed from thermally conductive material that is attached to and extends outwardly from the heat absorbing surface of the at least one thermoelectric cooling module; wherein the cooling strip is mounted to the headband so that the flexible draw strip has an exposed surface directed toward the head of the individual; and a biasing assembly (134, 186) that is disposed against said flexible draw strip for urging the exposed surface of said flexible draw strip against the head of the individual. a headband adapted to be worn around the head of an individual; and an assembly (76, 78) mounted to the headband for holding a face shield in front of the face of the individual characterized in that: a cooling strip is mounted to the headband, said cooling strip including: at least one thermoelectric cooling module with a heat absorbing surface and a heat discharging surface; a flexible draw strip formed from thermally conductive material that is attached to and extends outwardly from the heat absorbing surface of the at least one thermoelectric cooling module; wherein the cooling strip is mounted to the headband so that the flexible draw strip has an exposed surface directed toward the head of the individual; and a biasing assembly (134, 186) that is disposed against said flexible draw strip for urging the exposed surface of said flexible draw strip against the head of the individual. at least one thermoelectric cooling module with a heat absorbing surface and a heat discharging surface; a flexible draw strip formed from thermally conductive material that is attached to and extends outwardly from the heat absorbing surface of the at least one thermoelectric cooling module; wherein the cooling strip is mounted to the headband so that the flexible draw strip has an exposed surface directed toward the head of the individual; and a biasing assembly (134, 186) that is disposed against said flexible draw strip for urging the exposed surface of said flexible draw strip against the head of the individual.
An ultrasound transducer array comprising: an array of elongate support members displaceable and/or deformable relative to each other in the elongation direction of said elongate support members, each elongate support member having a patient facing surface carrying an ultrasound transducer tile; and a plurality of sensors, each adapted to detect the relative displacement of one of said elongate support members. an array of elongate support members displaceable and/or deformable relative to each other in the elongation direction of said elongate support members, each elongate support member having a patient facing surface carrying an ultrasound transducer tile; and a plurality of sensors, each adapted to detect the relative displacement of one of said elongate support members.
A method of forming a shielded electrical connector configured to receive a corresponding shielded electrical connector, comprising the steps of: a) cutting a shield terminal preform from a sheet of metal defining a single plane, said shield terminal preform having a first shield preform integrally formed with a second shield preform; b) forming the shield terminal preform such that the first shield preform is formed into a generally tubular shape having a first axis and single open seam and the second shield preform is formed into two semicircular channels having a second axis that is oriented at a right angle to the first axis; c) disposing an inner insulator within the shield terminal preform; d) providing an outer housing defining a cylindrical cavity; and e) placing the first shield preform within the cylindrical cavity, thereby joining edges of the single open seam and joining the two semicircular channels to form a tubular shape. a) cutting a shield terminal preform from a sheet of metal defining a single plane, said shield terminal preform having a first shield preform integrally formed with a second shield preform; b) forming the shield terminal preform such that the first shield preform is formed into a generally tubular shape having a first axis and single open seam and the second shield preform is formed into two semicircular channels having a second axis that is oriented at a right angle to the first axis; c) disposing an inner insulator within the shield terminal preform; d) providing an outer housing defining a cylindrical cavity; and e) placing the first shield preform within the cylindrical cavity, thereby joining edges of the single open seam and joining the two semicircular channels to form a tubular shape.
A tool coupler for use with a top drive system, comprising: a first component having a tubular body and a locking member; and a second component having: a housing having an opening for receiving the tubular body; a locking ring having a latch; an axial channel; and a recess, in communication with the axial channel, for receiving the locking member, wherein the latch is positioned in the axial channel to retain the locking member in the recess. a first component having a tubular body and a locking member; and a second component having: a housing having an opening for receiving the tubular body; a locking ring having a latch; an axial channel; and a recess, in communication with the axial channel, for receiving the locking member, wherein the latch is positioned in the axial channel to retain the locking member in the recess. a housing having an opening for receiving the tubular body; a locking ring having a latch; an axial channel; and a recess, in communication with the axial channel, for receiving the locking member, wherein the latch is positioned in the axial channel to retain the locking member in the recess.
A power supply comprising: a source steering diode configured to unidirectionally conduct DC electrical energy received from a source to a bulk capacitor where the conducted DC electrical energy is stored at a first voltage differential across the bulk capacitor; a transformer having a source winding, a load winding (18L 1), and a holdup winding, the load winding configured to provide electrical power to a load connected thereto; a switching regulator configured to provide, in response to a signal (S FB) indicative of the electrical power provided to the load, switched current to the source winding of the transformer, the switched current drawn from the bulk capacitor; a holdup circuit coupled to the holdup winding of the transformer, the holdup circuit configured to store DC electrical energy on a holdup capacitor, the DC electrical energy stored at a second voltage differential across the holdup capacitor, the second voltage differential greater than the first voltage differential; and a switching circuit configured to selectively transfer, in response to the first voltage differential falling below a predetermined threshold, the DC electrical energy stored on the holdup capacitor to the bulk capacitor; the power supply characterised in that the switching circuit comprises a one-shot configured to define a time period during which the DC electrical energy stored on the holdup capacitor is selectively transferred to the bulk capacitor. a source steering diode configured to unidirectionally conduct DC electrical energy received from a source to a bulk capacitor where the conducted DC electrical energy is stored at a first voltage differential across the bulk capacitor; a transformer having a source winding, a load winding (18L 1), and a holdup winding, the load winding configured to provide electrical power to a load connected thereto; a switching regulator configured to provide, in response to a signal (S FB) indicative of the electrical power provided to the load, switched current to the source winding of the transformer, the switched current drawn from the bulk capacitor; a holdup circuit coupled to the holdup winding of the transformer, the holdup circuit configured to store DC electrical energy on a holdup capacitor, the DC electrical energy stored at a second voltage differential across the holdup capacitor, the second voltage differential greater than the first voltage differential; and a switching circuit configured to selectively transfer, in response to the first voltage differential falling below a predetermined threshold, the DC electrical energy stored on the holdup capacitor to the bulk capacitor;
A method for regenerating a Cu-BTC material, comprising: impregnating Cu-BTC adsorbed with guest molecules in an acidic proton solvent or a steam environment thereof, and filtering the Cu-BTC material to obtain a solid; and impregnating the solid in a non-acidic organic solvent or a steam environment thereof, and finally filtering, washing and drying the solid, to complete the regeneration of the Cu-BTC material.
A method of scheduling field devices (14, 16, 18) in a wireless network of an industrial process system, the method being performed in a scheduling device and comprising: - scheduling one or more field devices (14, 16, 18) on uplink resources and on downlink resources, such that, for at least one of the field devices (14, 16, 18), a periodicity of uplink resources is different than a periodicity of downlink resources, characterized in that in the scheduling the uplink and downlink are handled as separate disjoint tasks, whereby the resources are assigned separately in uplink and downlink, and the scheduling comprises adapting one or more of: number of uplink resources and number of downlink resources based on one or both of type of field device and application requirements of the field device (14, 16, 18) to be scheduled. - scheduling one or more field devices (14, 16, 18) on uplink resources and on downlink resources, such that, for at least one of the field devices (14, 16, 18), a periodicity of uplink resources is different than a periodicity of downlink resources, characterized in that in the scheduling the uplink and downlink are handled as separate disjoint tasks, whereby the resources are assigned separately in uplink and downlink, and the scheduling comprises adapting one or more of: number of uplink resources and number of downlink resources based on one or both of type of field device and application requirements of the field device (14, 16, 18) to be scheduled.
Display device having a holder that can be fitted on the head of a user, an image-generating module secured to the holder, which generates an image, and an imaging optical system secured to the holder, which comprises a spectacle lens (3, 4) and which, when the holder is fitted on the head, images the generated image such that the user can perceive it as a virtual image, wherein the image-generating module comprises a two-dimensional light modulator with a plurality of pixels, from each of which a light bundle (24, 24') can emerge which together form a total bundle of beams, wherein the spectacle lens (3, 4) comprises a spectacle lens body comprising a front side and a rear side, with, seen in top view onto the spectacle lens (3, 4), a coupling-in section in an edge region of the spectacle lens (3, 4) and a coupling-out section in a central region of the spectacle lens (3, 4), with two opposing reflecting surfaces (8, 9) in the region of the coupling-in section, and with facets, which are embedded in the region of the coupling-in section in the spectacle lens body between the two reflecting surfaces (8, 9), characterized in that the facets are arranged next to each other in the region of the coupling-in section in the direction from the coupling-in to the coupling-out section (20, 21) in a first and an adjoining second region (30, 31), wherein the second region adjoins the first region in the direction from the coupling-in to the coupling-out section (20, 21), wherein the extension of the first region and the adjoining second region in the direction from the coupling-in to the coupling-out section (20, 21) is chosen such that it corresponds to the extension of the total bundle of beams striking the first and second regions, wherein the facets in the first region are partially reflective or reflective, the facets in the second region are partially reflective and directly neighbouring facets in the second region are connected by a face which is partially transparent or transparent, wherein the spectacle lens (3, 4) is suitable for guiding light bundles (24, 24', 24") of pixels of the generated image, which are coupled into the spectacle lens (3, 4) via the coupling-in section of the spectacle lens, in the spectacle lens (3, 4) by reflections to the coupling-out section and coupling them out of the spectacle lens (3, 4) via the coupling-out section, and wherein the facets in the first region reflect the light bundles striking them for the coupling-in at least partially to the second reflecting surface, at which a reflection in the direction to the first reflecting surface takes place for the guiding of the light bundles, wherein light bundles striking the faces in the second region thereby run through the faces to the first reflecting surface and are reflected on the first reflecting surface for the guiding of the light bundles and, after the reflection, transmitted through the partially reflective facets in the second region.
A method for cryopreserving biological specimens, such as human and animal tissues, cell types and subcellular materials for biobanking cryopreservation, comprising the steps of: i) placing said specimen in a cooling fluid pre-set at a first predetermined temperature of between -10°C and -60°C for snap freezing the specimen, and ii) reducing the temperature of said cooling fluid to a second predetermined temperature suitable for preserving said specimen, wherein the reduction of the temperature in step ii) is performed by a predetermined cooling profile, and wherein the predetermined cooling profile is performed with a predetermined cooling rate of between 0,5°C per minute and 3°C per minute. i) placing said specimen in a cooling fluid pre-set at a first predetermined temperature of between -10°C and -60°C for snap freezing the specimen, and ii) reducing the temperature of said cooling fluid to a second predetermined temperature suitable for preserving said specimen,
A hot-pressed member formed using a tailored blank material obtained by butt joining respective ends of two or more coated steel sheets, wherein a coated layer in a surface of each of the coated steel sheets is a Zn or Zn alloy coated layer, the hot-pressed member has two or more sites formed by the respective coated steel sheets and at least one joining portion between the sites, t w /t 0 ≥ 0.9, where t w is a thickness of a thinnest portion in the joining portion and to is a thickness of a thinnest site of the sites, and a tensile strength of each of the sites is 1180 MPa or more. wherein a coated layer in a surface of each of the coated steel sheets is a Zn or Zn alloy coated layer, the hot-pressed member has two or more sites formed by the respective coated steel sheets and at least one joining portion between the sites, t w /t 0 ≥ 0.9, where t w is a thickness of a thinnest portion in the joining portion and to is a thickness of a thinnest site of the sites, and a tensile strength of each of the sites is 1180 MPa or more.
A method of non-destructively measuring a thickness of a hydrogen ion exchange reinforcement membrane for a fuel cell having a three-layer structure, the method comprising: Inputting white light into a hydrogen ion exchange reinforcement membrane for a fuel cell having a three-layer structure; Obtaining a light spectrum by spectrally analyzing reflective light reflected by respective layers of the reinforcement membrane and converting the reflective light into an electrical signal; and Obtaining a thickness spectrum by calculating thicknesses of the respective layers of the reinforcement membrane with respect to a refractive index of the reinforcement membrane based on the obtained light spectrum, wherein the reinforcement membrane has ion exchange resin layers (T1, T3) which are positioned at one side and the other side of a porous film, respectively, and the ion exchange resin layers have the same thickness and the same medium, and wherein the method further comprises: analyzing whether the porous film is coated with the ion exchange resin layers (T1, T3) having the same thickness by showing the same refractive index and the same peak in the thickness spectrum. Inputting white light into a hydrogen ion exchange reinforcement membrane for a fuel cell having a three-layer structure; Obtaining a light spectrum by spectrally analyzing reflective light reflected by respective layers of the reinforcement membrane and converting the reflective light into an electrical signal; and Obtaining a thickness spectrum by calculating thicknesses of the respective layers of the reinforcement membrane with respect to a refractive index of the reinforcement membrane based on the obtained light spectrum, wherein the reinforcement membrane has ion exchange resin layers (T1, T3) which are positioned at one side and the other side of a porous film, respectively, and the ion exchange resin layers have the same thickness and the same medium, and wherein the method further comprises: analyzing whether the porous film is coated with the ion exchange resin layers (T1, T3) having the same thickness by showing the same refractive index and the same peak in the thickness spectrum.
Method for producing a pallet-less packaging unit that comprises multiple packaging objects (4, 10) that are stacked to a stack of goods and in which the packaging objects (4, 10) are stacked in such a way that a special layer, which forms at least two encroachment areas (14, 16) for fork legs of a lift truck, is formed on at least one stack level, wherein the special layer is stacked at first on top of a normal layer that is larger in relation to said special layer, the stack of goods is wrapped in any case with its encroachment areas (14, 16) with a first film; the stack of goods that is wrapped on one side is turned around so that the part of the stack of goods that has the special layer comes downwards and that the stack of goods is wrapped with a second film that reaches up to the first film, wherein the special layer forms two first encroachment areas for the fork legs and two second encroachment areas for the fork legs, wherein the second encroachment areas extend essentially in a rectangular way in relation to the first encroachment areas and wherein at least some packaging objects that form the special layer are smaller than the packaging objects that form the normal layer.
An air supply device of a stratified scavenging two-cycle engine, comprising: a carburetor provided with a single bore; the bore having therein a throttle valve provided by a butterfly valve that rotates in conjunction with a throttle operation so that, when the throttle valve is opened, a mixture passage for generated air-fuel mixture and an air passage are susbtantially defined on a downstream side of the throttle valve in the bore, an insulator provided on a downstream side of the carburetor; and a flow-rate regulator provided inside the air passage, the flow-rate regulator bulging inward in the air passage, wherein at least a part of a periphery of a valve body of the throttle valve is close to the flow-rate regulator until the valve body is rotated by a predetermined rotation angle from an initial position corresponding to an idling speed the air supply device comprises the insulator being provided with a mixture passage in communication with the mixture passage and an air passage in communication with the air passage, a mixture passage is defined by the mixture passage and the mixture passage; an air passage is defined by the air passage and the air passage wherein the flow-rate regulator is provided inside the air passage characterized in that the insulator is fixed to a cylinder block of an engine body and the carburetor is fixed to the insulator and that the flow-rate regulator is formed as a part of the insulator. a carburetor provided with a single bore; the bore having therein a throttle valve provided by a butterfly valve that rotates in conjunction with a throttle operation so that, when the throttle valve is opened, a mixture passage for generated air-fuel mixture and an air passage are susbtantially defined on a downstream side of the throttle valve in the bore, an insulator provided on a downstream side of the carburetor; and a flow-rate regulator provided inside the air passage, the flow-rate regulator bulging inward in the air passage, wherein at least a part of a periphery of a valve body of the throttle valve is close to the flow-rate regulator until the valve body is rotated by a predetermined rotation angle from an initial position corresponding to an idling speed the air supply device comprises the insulator being provided with a mixture passage in communication with the mixture passage and an air passage in communication with the air passage, a mixture passage is defined by the mixture passage and the mixture passage; an air passage is defined by the air passage and the air passage wherein the flow-rate regulator is provided inside the air passage characterized in that the insulator is fixed to a cylinder block of an engine body and the carburetor is fixed to the insulator and that the flow-rate regulator is formed as a part of the insulator.
Substrate element for use in an artificial grass pitch, the substrate element comprising a substrate body and a plurality of protuberances (25a, 25b, 25c) integrally formed with said substrate body, whereby the protuberances are evenly distributed across one of its surfaces and extending therefrom at a density of between 0.1 and 8 protuberances per square centimetre, and whereby the protuberances have a length of between 5 mm and 15 mm, characterised in that the substrate element has a hardness of between 30 Sh and 70 Sh and in that the protuberances are elongate, having a length greater than their width, whereby the protuberances are collapsible and can absorb energy by collapsing from an upright position to a bent position when subjected to an axial load.
A method for detecting adrenocorticotropic hormone comprising: bringing a liquid sample containing adrenocorticotropic hormone into contact with gelled casein to adsorb adrenocorticotropic hormone to the gelled casein; and detecting the adrenocorticotropic hormone adsorbed to the gelled casein. bringing a liquid sample containing adrenocorticotropic hormone into contact with gelled casein to adsorb adrenocorticotropic hormone to the gelled casein; and detecting the adrenocorticotropic hormone adsorbed to the gelled casein.